Fuels and our Furry Friends, a life-saving combination

Photo from Muttville Senior Dog Rescue

Sometimes the stories are high flying…

“A private plane crowded with kennels touched down at Oakland International Airport Sunday night.  The flight was filled with 69 dogs and cats rescued from the rising floodwaters in Texas.

“…animal rescue groups packed the plane with much-needed medications, collars, leashes and blankets and flew to Austin Sunday morning.  They returned with a plane filled to the brim with 15 cats and 54 dogs 8 p.m. Sunday night.

“Many of the dogs were evacuated from a shelter in Beaumont, Texas that was affected by flooding caused by Hurricane Harvey. … Before Sunday’s rescue mission, the animals were at risk of being euthanized.”

Sometimes the story is quite down-to-earth…

“Best Friends Animal Society set up an impromptu shelter at the NRG Arena in Houston…where lost pets from Hurricane Harvey were kept safe in hopes their families would find them and take them home.

Luna (the dog) was one of the hundreds of pets at the shelter waiting for her family. … Luna’s history hasn’t been very easy … She was initially an abandoned dog roaming the streets of Laredo, Texas.  She was brought to Houston and had been passed around many, many times.”

And when Luna finally did find a loving home, along came Hurricane Harvey.  But this time, the story had a different ending, thanks to Best Friends, Doobert.com and Laura and Jeff’s 100-mile road trip.

“On Saturday, September 30, Laura and Jeff drove to the NRG Arena to pick up Luna and start her journey home.  Luna enjoyed the drive even though they were stuck behind a 10-car pileup on the way to College Station … Luna had a warm welcome home with endless hugs and love.  She is now safe at home with her family.”

Sometimes, the work is done one person, one dog, one propeller at a time:

(Photo from Flying Fur Animal Rescue)

Over the last two years, Flying Fur Animal Rescue has saved more than 900 animals, up and down the East Coast:

“Through a network of animal rescue organizations and ground transport, we help to move animals from kill shelters to areas where they will be adopted, and given a second chance at life.  Many times air transport is the safest and most efficient way to transport these animals.  Usually we can help move animals from shelter to rescue within the same day.

“Every day, healthy, loving animals throughout this country are condemned to euthanization, simply because they cannot get to other areas where they would otherwise be adopted – we help to change those odds.”

That’s the big picture.  This is Flying Fur’s story of Peter.

“Peter was a senior, found during the search of an abandoned building by NYC Police, tied up and left to die alone.

“…Imagine Pet Rescue stepped in and pulled Peter from the shelter. … Through a network of volunteers, we were alerted to Peter’s urgency” … he was driven from New York, to an airport in New Jersey, and flown …”to his new forever mom, Amber, just outside of Pittsburgh, Pa.”

And sometimes, the work of saving animals takes a 737 – and a village, of people, and of pets:

(Photo by Shelley Castle Photography, from Southwestaircommunity.com)

More than 60 cats and dogs, in fact, who flew on that 737, from Puerto Rico, to Baltimore.  Pets who’d been without a home since Hurricane Maria, or pets whose families were not able to care for them in the aftermath of the storm.

That’s when Lucky Dog Animal Rescue stepped in.  Working with PR Animals in Puerto Rico, and Southwest Airlines – the planning took months, and it took dozens of volunteers (including the crew of the plane.  The use of the plane was a donation from Southwest.), on both ends to carry out that plan.  But when it was done, that plane brought in 14,000 pounds of supplies in to Puerto Rico, and brought out all those cats and dogs to loving, safe homes.

Oh, and if you’re wondering about their fellow passengers, those cats and dogs WERE the passengers.  They didn’t fly down in the cargo hold.  They (and their travel crates) were strapped into seats in the main cabin.  Well, except for one dog.  (Co-pilot, we’re thinking.)

(Photo by Shelley Castle Photography, from luckydoganimalrescue.org)

Big and small, every day or extraordinary event, all of these rescues are made possible by people who love animals, and by the petroleum which fuels their rescue flights and drives.  The workings of an internal combustion engine might be as mysterious to a cat or a dog as they are to many humans – but the life-saving work of a petroleum-fueled engine – there’s no mystery at all about that.

 The ASPCA estimates that there are 78 million dogs and almost 86 million cats in the U.S., not to mention a wide variety of other animal pets.  Many of them are pets in loving homes, but as Peter’s story reminds us, not all.  And in times of disaster, even a loving home can be broken up and put at risk.

But as long as there are men and women willing to rescue animals in danger, they’ll be able to count on the fuels produced from petroleum to get them where they are needed, when they are needed – and back again.

 

Is your truck smarter than you?

If your new truck is a Chevy, the answer might be yes.  At least speaking on behalf of its engine.

That’d be the eight-cylinder engine that you can find in the 2019 Chevy Silverado.

Because this engine can give you 355 horsepower firing on all eight cylinders, and that same engine can also run on just one cylinder.

That’s right, it can run on one cylinder.  Or two.  Or six.  In fact, there are 17 different possible configurations.

Now here’s the “smarter” part:  the engine’s brain crunches the numbers to figure out which of those 17 set-ups is right for the driving you are doing in a given moment, and it can figure that out 80 times a second.

And that’s smart with a purpose.  If your engine can match the power it’s producing, to just the power you need – that means you are using just the fuel you need.  That saves you money, and saves us all a valuable resource.

So, you’re driving uphill, pulling a trailer?  Eight cylinders.  Cruising at a steady speed on a flat stretch of highway – maybe six cylinders does the trick.  Pulling into your driveway at home?  One cylinder might do fine for that.  Chevy figures that more than half the time, your engine will be running on fewer than all eight cylinders.

But just ask your engine – it’ll know.  Ok, don’t really.  It isn’t like Alexa or Siri, and anyhow, if it’s figuring out what to do 80 times a second, your engine probably doesn’t really have time to chat.

Chevy calls this Dynamic Fuel Management, and this is how their engineers describe it:

“DFM is powered by a sophisticated controller that continuously monitors every movement of the accelerator pedal and runs a complex sequence of calculations to determine how many cylinders are required to meet the driver’s requested torque … An electromechanical system deactivates and reactivates all 16 of the engine’s hydraulic valve lifters, controlling valve actuation.”

So maybe it is true that you can’t teach an old dog new tricks.  But an old engine?  A few centuries on, the internal combustion engine keeps getting more mileage, and more power out of every gallon of gasoline you put into it.  We call that smart.

By the way, if you want to see what a really smart engine looks like, it looks like this (well, actually it IS this):

And if you want to read more about it, Chevrolet’s got that (or you can check your favorite automotive magazine/website).

How Much Propane Do You Need To Deep Fry Eight Turkeys? (and more propane-ology)

If you’ve got a grill parked in the backyard, or you’re the kind of camper who prefers a cooked dinner over beef jerky – you probably know about propane already (but keep an eye out later in this story, when we answer the question:  “How much propane do you need to deep fry eight turkeys?”  Coming below.).

That’s because propane is what fires up a lot of our grills and camp stoves.  But propane does much more than cook (in fact, about 48 million households in the U.S. have something that runs on propane).

Brief detour, especially if you’re not already a member of Propane Nation:  What IS propane?

The simple answer is, propane is a fuel made from natural gas or petroleum (either one works).  Propane is a gas in its natural state, but we usually see it as a liquid, in a tank or a canister, because it’s easier to store (a little liquified propane equals a lot of propane gas fuel).

So what CAN you do with propane?  Let’s take a look.

Yes, you can fire up a backyard grill.  That’ll cook all sorts of things – from hot dogs and steaks burgers, to grilling corn or eggplant or kebobs.  And if deep-frying eight turkeys is on your mind, our expert suggests three 5-gallon propane tanks (two might do it, but just in case.  And you can always use that third tank next time.).  He walks you through it here:  “Let’s deep fry a turkey.”

You can eat a home (well, camp)-cooked meal, out in the woods.  The Coleman stove is a long-time classic.  Hook that up to your propane canister and you’ve got everything from coffee in the morning to, well, just about anything for dinner (Red wine-marinated hanger steaks with flatbreads.  Yes, you could.)

Back home from that camping trip?  So maybe you didn’t do that much cooking out in the wilderness and now, you are hungry.  Maybe even hangry.  If home is in a city, chances are, there’s something good cooking in a food truck near you.  And food trucks do their cooking on – propane stoves.  A pork slider on a Hawaiian roll?  Some fried plantains and pupusas?  Barbeque?  A sisig burrito?  Thanks, propane.

But propane isn’t just about the kitchen.  If there’s a pool (along with that grill) in your backyard, a propane heater can keep that pool just the temperature you’d like.  Propane also powers portable patio heaters if you’re sitting out at night.   And there are propane fire pits too, if you like that look.

And speaking of heat, come wintertime, you might live in one of the 10  million or so households that uses propane to heat the inside of the house.  Demographically speaking, that’s more likely to be true if you live away from a city or in a mobile home – though propane heat is a feature of many new homes now in the Northeast.  A propane generator can be handy too if your power goes out (you can be back in the light, or online in as little as 10 seconds).

You might also be using propane at work.  About 40 percent of American farmers use it for something – and “something” runs the gamut from powering irrigation engines, operating forklifts, running heaters to dry grains like corn and wheat, keeping the barn or the greenhouse warm – along with the same uses we non-farmers have for propane, like cooking.  All told, American agriculture is using more than a billion gallons of propane every year.

But the single-biggest use of propane, about 80 percent, is at work is for industrial uses.  If you’ve ever seen somebody with a visor and a blowtorch, for instance – metal cutting or soldering, that blue flame is propane on the job.  Propane is also the fuel of choice for vulcanizing (which is the fancy name for the heating process that turns the ingredients of a tire, into a tire).

Propane even fixes potholes.  Sort of.  Or more precisely, propane is used to heat up the asphalt that’s used to fix potholes.  So keep an eye out for those highway maintenance workers when you’re driving, and if they are doing road repairs, you can give a tip ‘o the hat to propane as you pass.  In fact, you might even be driving on propane.  There are some 200,000 cars, trucks and vans out on the road, using propane as fuel.  (The most common uses are for police cars, school buses and shuttle vans).

There are even propane-fueled mosquito traps.

Life on the Madden Cruiser

What’s the most famous bus in the NFL?

Some Steeler fans might disagree (see Jerome Bettis), but for most of us (even in Pittsburgh), the answer is:  John Madden’s bus.

The pros agree too.  This year, the (original) Madden bus went into the NFL Hall of Fame.

Technically, it was called the “Madden Cruiser”, and on the outside, it looked like a converted Greyhound bus, which is what it was.

But inside – well, a ride on the ‘Hound’ never looked like this.

      (Photo from Pro Football Hall of Fame)

We’ll get to that interior in a moment. But first, the story of how John Madden came to be on the bus.

“People used to say to me, ‘It must be great coaching and traveling and seeing all the things you do,’ … Well, I’d get on the airplane, and then I’d get off the airplane, get on a bus and go to the hotel. Then the stadium, then the airplane again. I thought I’d traveled all over, but I hadn’t seen anything. You’ve got to be on the ground to see things.”

That’s how he told it to Sports Illustrated’s Peter King, when King rode the bus with Madden – Oakland, California to New York for a 1990 Giants-Cowboys game.

In the beginning, Madden did fly. But a recurring claustrophobia put an end to that. Then he rode the train. But the train schedules weren’t flexible enough for his schedule. And so in 1987, the Madden Cruiser hit the road for the first time – logging 55,000 miles that season.

Naturally, this was no ordinary bus. It came with a bedroom (queen-sized bed), full bathroom, kitchenette and – and a built-in vacuum cleaner! On the end, there were two color TVs, phone, intercom, CB radio, two laser-disc players, a stereo system and a videotape machine (remember, this was 1987).

But if Madden started riding the bus out of necessity, he came to love it, and the country it took him through.

“We had to stop in Beaver Crossing, Nebraska [pop. 480] once, to use the phone for the radio show* … Some guy comes across the street from a gas station and introduces himself. Roger Hannon. He was the mayor, and it was his gas station. The next thing I know, we’re in front of the city hall, and the people start coming out, and they want to see the bus. One woman brought me a rhubarb pie. I didn’t even know what rhubarb pie was, but it was great. The whole town came out.”

Madden developed an appetite for seeing the country – the mountains, the prairies, the big sky – and he had an appetite for all the small town cafes, the diners, the Grandpa’s Steakhouses and Chuy’s along the way. See the country he did too, over two decades and four different editions of the Madden Cruiser. When Madden hung up his broadcaster’s mic in 2009, the buses were racking up 80,000 miles a year.

(Photo from Bus Digest Magazine)

Over those years of course, the bus had changed a bit (by 2009, Madden didn’t have to stop at a gas station to use the phone anymore).  But what never changed was life on the road.

You can follow the road, wherever the road goes.  You can stop whenever you want.  You can see whatever there is to see.  As long as there’s a town, there’s food.  As long as there’s a gas station, there’s fuel.  And that’s as true for any of us, as it was for John Madden.

“If the claustrophobia thing didn’t happen, I wouldn’t know what this country is, or what these people are like.  I would have been like everybody else:  run, run, run.  Airport, airport, airport.  Hotel, hotel, hotel.  City, city, city.  I wouldn’t have found time to see things like I see them now.”

Madden also had one other inspiration for taking the bus.

Almost thirty years earlier, novelist John Steinbeck set out around the country in a camper – and those trips became his book, “Travels With Charley” (Charley the dog).  “Travels with Charley influenced me a lot … I always wanted to travel, because I’d never seen anything.  He was a great storyteller, John Steinbeck.  I read everything of his.”

Steinbeck’s book is a classic road story.  But, let’s save that story for another time.

By the way, it isn’t just the Madden Cruiser that’s in the Hall of Fame.  John Madden is there too.  No, not for Madden NFL.  Before the video game, before the broadcasting career – Madden was a Super Bowl-winning coach.  The Hall of Fame will catch you up on that part of his story here:  John Madden.

How’s your genie lamp? (Or what ARE those lights on my dashboard?)

Ok, we’re not going to go through all of them (and there are a lot. One guide lists 44 lights/warnings for new model cars.). But here are the ones that might be most important (and what to do if one of these lights, lights up on you):

Low tire pressure warning light:  This doesn’t mean you need to top off the air pressure with a quick squirt from the air hose at the gas station.  This means there’s a hole and a leak in a tire – so you want to look at your tires ASAP.

This is particularly important if you have “run-flat” tires, because when you’re driving on those, you may not be able to tell you’ve got a flat.  Run-flats have stiff sidewalls that will you let you drive, for a time, on a tire without air.  But check your car’s manual for how fast and for how long you can drive safely (because too far and too fast means a blowout). (Note:  If your ride is older than 2008, it may not have this light.)

Low battery warning light:  Conveniently, this looks like a battery; well, a car battery.

This is your heads-up to change course and drive to your mechanic.  (And while you’re driving there, it’s a good idea to leave the stereo, the AC or the heater, whatever you can safely leave off, off – because they all draw electricity.)

The problem could be the battery itself, or the charging system (the alternator, and company).  But if you don’t get it checked straightaway, when you park and turn off the engine – that might be the last time you can start it without a call to AAA.

Brake warning light:  Take that one seriously, because without brake fluid, you’re without brakes, period.  Now, the brake light can mean a leak, it can just mean the car is low on brake fluid, or it can mean other problems with the brakes – so you want a knowledgeable eye to figure out what’s going on.Just in case though, one thing YOU can do is check your emergency brake.  If you’re driving with that on, you’ll get a light as well.

The genie lamp, aka the oil pressure light (see the little drip):  Like the brake warning, this can signal a leak, oil in this case.  Oil keeps the moving parts of your engine moving smoothly and cool-ly – so don’t fool around with this.  When you’ve stopped, and the engine is cool, you can check the oil yourself, and add some if needed (your car’s manual will tell you how). But if that isn’t the answer, then a trip to your mechanic probably is (the problem could be a leak, the oil pump, even something with the engine itself).

Temperature warning light:  Just like us, if your car is running a fever, it’s a sign something is wrong.  And like us, there are a lot of reasons your car might be overheating (among them, coolant leak, broken water pump, failed thermostat). Don’t, as in do not, drive the car when the temperature is all the way over in the red – that can result in serious (and expensive) engine damage. And do not, as in never, open the radiator to check the coolant level if the car is hot – that can result in serious burns.  Do get the car checked out though, as soon as it is cool enough to drive. (And one weird tip, if your car is just starting to overheat on a hot day, turn off the AC and turn ON your heater.  Weird?  Yes.  But what it does is blow some of that heat away from the engine, though.

And here’s your bonus light, the engine warning light:  You could spend all day on the internet, looking this up – and at the end of that day, you’d have almost as many explanations as you’d looked at pages. The short explanation is that usually, you can drive the car with the light on – but you shouldn’t drive it for weeks and weeks like that.  So yes, a trip to the mechanic – but not an urgent trip like the other lights.  (Most often this light signals a problem with your car’s emissions system, so we will breathe easier along with you, if you get this checked out and cleared up.)

“Alexa…I have a headache”

Medicines delivered by drone?  It could happen.

Now before you think this is just the latest example of the online world run amok, let’s look at who this might REALLY make a difference to.

If you live in a city, or near a city, there probably are plenty of those chain pharmacies, and maybe even a local drugstore or two.  So in which case, the prescription drone might be the equivalent of getting a pizza delivered from the place around the corner.

But that isn’t all of us.  For starters, about one in ten Americans live in areas where there is no “drugstore around the corner.”  In fact, for all the drugstores in the U.S. (and there are a lot), they are not evenly spread out – some parts of the country have THREE times more drugstores per capita (like the Northeast, Southeast and Plains states) compared to others (like the Pacific West, Southwest and Great Lakes region).  Factor in travel time, work schedules and the hours at your “local” drugstore – and picking up medicines is not always so easy.

And no matter where you live, if you have trouble getting around, or you can’t drive anymore – a pharmacy that’s not far away on the map, can be a challenge to reach in real life.  Some drugstores do deliver – but it turns out that the areas with the highest number of people who DO have a medical condition that makes getting around difficult, those are the same areas with the fewest number of pharmacies that deliver.

For someone who can’t get to the doctor easily, there are phone consultations, and even FaceTime or Skype, so you can see each other while you talk.  But you can’t send medicine, or a home test kit through the internet.

So could drones make a difference, delivering prescriptions?   A group at Texas A&M University has started the work of answering that question – and the early results (mathematical modeling to see how and if this could be done) seem promising.

And one day, that knock on the door might be your blood pressure or asthma or cholesterol medication.

The Football Helmet of the Future

Well, actually, we don’t know what the football helmet of the future is.  Yet.  But as the 2018 football season gets started, we do have some clues about the next generation of football helmets.

Before the start of the season, the NFL announced winners of its fourth “HeadHealthTECH Challenge” – an ongoing series of grants to universities and companies “designed to stimulate research and innovation in protective equipment” for players – in particular, better helmets.

Of course, this wouldn’t be the first change in football helmets.  In fact, in the early days of the game, there weren’t any helmets at all.  Then, after a brief moment of glory (in the late 1800s) for the “head harness”, the first leather helmet arrived.

Durable, but not a lot of protection.

Even so, leather helmets were the ONLY helmets until the Second World War.  And if you know your football history, you’ll know some of the greatest players ever – Jim Thorpe and the Galloping Ghost (Red Grange), Sid Luckman and (Slingin’) Sammy Baugh – wore the leather.

The next leap was the plastic helmet.  And just about everything since has been tinkering with that:  the addition of padding inside, and then more padding – first the single bar facemask, and then gradually more and more crossbars – newer types of padding – newer types of plastic – radio receivers (for the quarterback to get signals from the sidelines) – visors.

And THOSE helmets, in their various versions, take us from Johnny Unitas and Jim Brown, to Tom Brady and Antonio Brown.

But today, with a much higher level of concern about concussions, and long-term brain injuries – a new generation of helmets is coming.  From the outside, the new helmets might look familiar to Johnny U, but inside, new materials (built from petrochemical-derived materials) and very high tech will make these helmets totally 21st century.

For example, there’s Corsair Innovations’ FEAM (Fiber Energy Absorbing Material, if you’re wondering) – a helmet insert that substantially reduces the impact of getting hit, especially from twisting motions (baseball umpires are already using this).

And Yobel Technologies, a start-up based on research done at Mississippi State, which is testing out a new, lightweight, impact-absorbing faceguard.

Those two projects are winners of this year’s HeadHealthTECH Challenge (which has given out more than $1.3 million in grants so far).  Previous winners include:

Windpact, for an inside-the-helmet tech that is like “airbags” for your brain.

VyaTek for its Zorbz™  – which , like it sounds, “absorbs” up to 50 percent of the force of a hit (and which you can swap out for a new Zorbz™  afterward).

2nd Skull®, which is a (mostly) foam insert that you wear on your first skull – with a helmet, for football;  without a helmet, for sports like rugby.

And that’s just some of what’s making its way from the lab to the field.

So what will the helmet of the future look like?

Well, no.  Probably not like that.  And not like Tony Stark’s headgear either.

But whatever they look like, the next generation of helmets is coming.  And that new gear will make the game safer for NFL players, college players and even the youngest Galloping Ghosts-to-be.  Which is also good news for fans of football, and parents of football players.

Reinventing the wheel

So when the people at DARPA say they’ve got a better wheel, we’re inclined to give them a listen.  After all, the Defense Advanced Research Projects Agency, doesn’t just have the Internet on its resume.  The technology behind GPS, hyperlinks, Siri, Google Maps and Windows – they had the first versions of all that too.

And actually, it looks like they’ve come up with Wheel 2.0 now too (working with the Robotic Engineering Center at Carnegie Mellon University).

It’s a round wheel, like the wheels we’ve known for centuries.  And it’s a triangular tread or track – like what you’d find on a tank.

Driving your Humvee down a highway – wheel mode.  Going off-road over rough terrain – switch to track.  Making that transformation is remarkable enough.  Even more – this happens on the fly, while you are driving.  (Take that, 4-wheel drive.)

Yeah.  That’s it.

And that’s not all DARPA is up to, when it comes to tinkering with a soldier’s ride.  Also getting a try out  – two versions of a windowless vehicle, using video and LIDAR outside; 3-D goggles, multiple screens and software inside – to allow driving without “seeing’ (eliminating vulnerable windows) – and even a version that can calculate the best route in a given situation, and drive itself off-road if necessary.  And there’s hydraulics too:  a suspension system, that lets a vehicle stay level, even driving across a steep slope (by jacking up the body of the vehicle on the downhill side).

You can see a little of all that, in this DARPA video.

Now in the end, some of these innovations may never get off the test track.  Some of them may go no farther than the battleground (though if they keep our servicemen and women safer, that’s certainly reason enough).  So we may never see these in the car of the future that we are driving.  But you never know where DARPA’s work turn up.  Just ask Siri.

(And do we need to say it?  Well, just in case:  these Army vehicles, whether they run on wheels or treads – or both! – like most of the cars and trucks the rest of us drive – what keeps them moving are gasoline and diesel, the fuels we make from petroleum.)

Hailey’s Hand: Girl with 3D Printed Hand Throws First Pitch at Every Major League Baseball Stadium

Photo Credit: UNLV Photo Services

Angels in the outfield? Not quite. On September 16 at Angel Stadium in Anaheim, all eyes were on the infield – the pitcher’s mound, to be exact.

There, 8-year-old Hailey Dawson threw her final first pitch of the Major League Baseball season and completed her goal to throw the first pitch at all 30 MLB ballparks.

A personal victory, indeed, but it’s also one with a global impact. Hailey has been artfully pitching with a 3D-printed hand — made with plastics made possible by petrochemicals. Born without a right pectoral muscle, which also affects the growth of her right hand, Hailey has Poland Syndrome. She has been successfully using MLB pitching mounds across the U.S. and Canada as a platform to raise awareness about the rare birth defect.

Even more, Hailey has been giving wings to a game-changing 3D printed technology that is making prosthetics more affordable to more people worldwide.

Her “Journey to 30” began March 31 at Petco Park in San Diego, but really this story began several years ago, when Hailey’s mom, Yong Dawson, started researching prosthetics for her daughter. She wanted Hailey to be able to hold a bike’s handlebar more easily, and Hailey wanted to play baseball. Traditional prosthetics, however, cost $20,000 or more, an amount far from feasible for kids who tend outgrow the device.

Yong turned to another groundbreaking technology: the internet. There, she discovered a South African organization called Robohand, which uses 3D printing technology, along with wires, nuts, bolts and hinges, to create more affordable prosthetic hands. Robohand shares its models online so that anyone in the world can create their own prosthetics. It asks only that the models aren’t sold for a profit.

Yong, of Henderson, Nev., near Las Vegas, then emailed the University of Nevada Las Vegas’s (UNLV) Howard R. Hughes College of Engineering asking for assistance.

The school’s faculty leaped at the chance to help, with Brendan O’Toole, chair of the mechanical engineering department, and Mohamed Trabia, associate dean for research, graduate studies, and computing taking on the project alongside UNLV students, according to the university.

While O’Toole had previously worked with foot and ankle prosthetics, they didn’t involve 3-D printing.

“We liked the idea of a community-based design where we’re using our research and resources to help someone,” O’Toole said in a university report.

Interestingly, none of the roughly 100 Robohand concepts were a perfect fit for Hailey, so the team started from scratch and created a customized hand, “blending design ideas and materials found around the world through internet research,” the university said.

Using a Stratasys Fortus 250MC 3-D printer, the team benefited from precision printing of parts.

As UNLV’s staff described it: “In the machine, a yarn-like spool of plastic filament connects to a print head, which sprays layers of plastic just 0.007-inches thick until eventually smooth, very real-looking hand shapes form. The team chose ABS* plastic for all-weather use.”

After much refining, workable prosthetics were created for Hailey. According to an article by UNLV last year about Maria Gerardi, the UNLV graduate student credited with that refinement, each Robohand takes about a week to make – a relatively gracious timeline for a rapidly growing girl. And the cost is far lower than traditional prosthetics: “Each hand costs about $200 in supplies,” the school reports.

The process “requires a mix of biology and kinesiology know-how (to understand how the human body and muscles involved in various grasping motions work), along with math (to calculate part dimensions and build 3-D models) and engineering (to design components that are small yet thick enough to not break),” according to UNLV’s engineering department.

It’s an innovation that can be shared – and then applied – to people in need worldwide.

And it helped hurl Hailey into the Major Leagues.

Before this season, Hailey had thrown pitches at the Washington Nationals and Baltimore Orioles and also in the fourth game of the 2017 World Series. Her story so inspired, she was invited to fulfill a dream to pitch at all 30 MLB stadiums. For each game, Hailey used a different hand to pitch with the respective team’s logo.

The large MLB stage has had a significant impact, inspiring not only baseball greats like Derek Jeter, but also helping to push the envelope on inspiring technology. Stratasys, a 3D-printing company that gave printing resources to UNLV, told the news publication SportTechie that Hailey’s Hand is “motivating advances in biomedical engineering and 3D printing around the U.S.”

Also, her story has inspired others. According to UNLV, a local Las Vegas family who heard about Hailey’s Hand in the news contacted the college, prompting UNLV engineering students to work with their daughter as well.

“There’s been so much publicity around it, and this is progressing at a rapid rate,” Jesse Roitenberg, an education segment sales leader at Stratasys, told SportTechie of the technology.

And so, indeed, there was one extra angel on the field at Angel Stadium on September 16.

Hailey’s Hand has done far more than just pitch in. It’s showed the world that anyone with the right combination of heart and desire along with the right technology and materials can do almost anything.

What does it take to make Hailey’s hand possible?  It takes one brave little girl, Hailey – to wear that hand, and to wear that hand in front of 30,000 people while throwing out a first pitch.  It takes a team of really smart engineers to make a working hand (and just think about how complicated your own hand is for a moment, to appreciate what a task that was).

And yet, that still isn’t enough.  Imagine you only had wood, or stone, or even metal to work with.  You might make a hand that LOOKS just like a hand – artists have done that for centuries.  But to make a hand that WORKS like a hand – for that, you need the right material – and the team at UNLV found that in ABS plastic.

But you can’t find ABS plastic in a forest, or a field, or a mine.  ABS plastic has to be made, and it’s made from petrochemicals – the chemicals that in turn, we make from petroleum and natural gas.  A material that’s strong and durable and lightweight.  A material that is affordable to produce and to shape (thanks to the 3D printing), which is especially important for a kid’s prosthetic, because as they grow, it needs to be replaced periodically.  (And, it IS a little odd to think about, in the case of a hand, but ABS plastic is also easily recycled and reused – so no waste.)

So if we didn’t have petroleum.  If we didn’t have natural gas.  We wouldn’t have many of the things, and much of the materials for making things, that we take for granted in our world today.  And one of those things we wouldn’t have, would be the miracle that we saw at ballparks around the country this summer.

*ABS stands for acrylonitrile butadiene styrene – which would be just what it’s made from:  the polymers styrene and acrylonitrile, which are strong and stable; along with synthetic polybutadiene rubber, used for toughness (styrene makes it look good too).  Put those three together in the lab, with a catalyst here, a catalyst there, and after a few chemical reactions, you’ve created ABS plastic.

Hailey’s Hand: Girl with 3D Printed Hand Throws First Pitch at Every Major League Baseball Stadium

Photo Credit: UNLV Photo Services

Angels in the outfield? Not quite. On September 16 at Angel Stadium in Anaheim, all eyes were on the infield – the pitcher’s mound, to be exact.

There, 8-year-old Hailey Dawson threw her final first pitch of the Major League Baseball season and completed her goal to throw the first pitch at all 30 MLB ballparks.

A personal victory, indeed, but it’s also one with a global impact. Hailey has been artfully pitching with a 3D-printed hand — made with plastics made possible by petrochemicals. Born without a right pectoral muscle, which also affects the growth of her right hand, Hailey has Poland Syndrome. She has been successfully using MLB pitching mounds across the U.S. and Canada as a platform to raise awareness about the rare birth defect.

Even more, Hailey has been giving wings to a game-changing 3D printed technology that is making prosthetics more affordable to more people worldwide.

 

 

Her “Journey to 30” began March 31 at Petco Park in San Diego, but really this story began several years ago, when Hailey’s mom, Yong Dawson, started researching prosthetics for her daughter. She wanted Hailey to be able to hold a bike’s handlebar more easily, and Hailey wanted to play baseball. Traditional prosthetics, however, cost $20,000 or more, an amount far from feasible for kids who tend outgrow the device.

Yong turned to another groundbreaking technology: the internet. There, she discovered a South African organization called Robohand, which uses 3D printing technology, along with wires, nuts, bolts and hinges, to create more affordable prosthetic hands. Robohand shares its models online so that anyone in the world can create their own prosthetics. It asks only that the models aren’t sold for a profit.

Yong, of Henderson, Nev., near Las Vegas, then emailed the University of Nevada Las Vegas’s (UNLV) Howard R. Hughes College of Engineering asking for assistance.

The school’s faculty leaped at the chance to help, with Brendan O’Toole, chair of the mechanical engineering department, and Mohamed Trabia, associate dean for research, graduate studies, and computing taking on the project alongside UNLV students, according to the university.

While O’Toole had previously worked with foot and ankle prosthetics, they didn’t involve 3-D printing.

“We liked the idea of a community-based design where we’re using our research and resources to help someone,” O’Toole said in a university report.

Interestingly, none of the roughly 100 Robohand concepts were a perfect fit for Hailey, so the team started from scratch and created a customized hand, “blending design ideas and materials found around the world through internet research,” the university said.

Using a Stratasys Fortus 250MC 3-D printer, the team benefited from precision printing of parts.

As UNLV’s staff described it: “In the machine, a yarn-like spool of plastic filament connects to a print head, which sprays layers of plastic just 0.007-inches thick until eventually smooth, very real-looking hand shapes form. The team chose ABS* plastic for all-weather use.”

After much refining, workable prosthetics were created for Hailey. According to an article by UNLV last year about Maria Gerardi, the UNLV graduate student credited with that refinement, each Robohand takes about a week to make – a relatively gracious timeline for a rapidly growing girl. And the cost is far lower than traditional prosthetics: “Each hand costs about $200 in supplies,” the school reports.

The process “requires a mix of biology and kinesiology know-how (to understand how the human body and muscles involved in various grasping motions work), along with math (to calculate part dimensions and build 3-D models) and engineering (to design components that are small yet thick enough to not break),” according to UNLV’s engineering department.

It’s an innovation that can be shared – and then applied – to people in need worldwide.

And it helped hurl Hailey into the Major Leagues.

Before this season, Hailey had thrown pitches at the Washington Nationals and Baltimore Orioles and also in the fourth game of the 2017 World Series. Her story so inspired, she was invited to fulfill a dream to pitch at all 30 MLB stadiums. For each game, Hailey used a different hand to pitch with the respective team’s logo.

The large MLB stage has had a significant impact, inspiring not only baseball greats like Derek Jeter, but also helping to push the envelope on inspiring technology. Stratasys, a 3D-printing company that gave printing resources to UNLV, told the news publication SportTechie that Hailey’s Hand is “motivating advances in biomedical engineering and 3D printing around the U.S.”

Also, her story has inspired others. According to UNLV, a local Las Vegas family who heard about Hailey’s Hand in the news contacted the college, prompting UNLV engineering students to work with their daughter as well.

“There’s been so much publicity around it, and this is progressing at a rapid rate,” Jesse Roitenberg, an education segment sales leader at Stratasys, told SportTechie of the technology.

And so, indeed, there was one extra angel on the field at Angel Stadium on September 16.

Hailey’s Hand has done far more than just pitch in. It’s showed the world that anyone with the right combination of heart and desire along with the right technology and materials can do almost anything.

What does it take to make Hailey’s hand possible?  It takes one brave little girl, Hailey – to wear that hand, and to wear that hand in front of 30,000 people while throwing out a first pitch.  It takes a team of really smart engineers to make a working hand (and just think about how complicated your own hand is for a moment, to appreciate what a task that was).

And yet, that still isn’t enough.  Imagine you only had wood, or stone, or even metal to work with.  You might make a hand that LOOKS just like a hand – artists have done that for centuries.  But to make a hand that WORKS like a hand – for that, you need the right material – and the team at UNLV found that in ABS plastic.

But you can’t find ABS plastic in a forest, or a field, or a mine.  ABS plastic has to be made, and it’s made from petrochemicals – the chemicals that in turn, we make from petroleum and natural gas.  A material that’s strong and durable and lightweight.  A material that is affordable to produce and to shape (thanks to the 3D printing), which is especially important for a kid’s prosthetic, because as they grow, it needs to be replaced periodically.  (And, it IS a little odd to think about, in the case of a hand, but ABS plastic is also easily recycled and reused – so no waste.)

So if we didn’t have petroleum.  If we didn’t have natural gas.  We wouldn’t have many of the things, and much of the materials for making things, that we take for granted in our world today.  And one of those things we wouldn’t have, would be the miracle that we saw at ballparks around the country this summer.

*ABS stands for acrylonitrile butadiene styrene – which would be just what it’s made from:  the polymers styrene and acrylonitrile, which are strong and stable; along with synthetic polybutadiene rubber, used for toughness (styrene makes it look good too).  Put those three together in the lab, with a catalyst here, a catalyst there, and after a few chemical reactions, you’ve created ABS plastic.

Motorcycle Heaven in South Dakota

What is 80 years old, has one million wheels, and is really loud?

That’d be the annual Sturgis Motorcycle Rally, in Sturgis (naturally), South Dakota – with somewhere around 500,000 motorcycles (and riders).

Not surprisingly, with half a million bikes, this wasn’t a one-day or even a weekend event.  This is TEN days of food and music and touring and…motorcycles.

The 2018 edition recently wrapped – but if you weren’t there, and now you’re feeling bad that you’ve missed the Beard & Mustache Contest or Military Appreciation Day, the Mayor’s Pub Crawl or the Tuesday Tattoo Contest (and all those bikes, and riders) – you can live vicariously a little here:  Sturgis Motorcycle Rally.

There are a lot of different bikes, of course, under the motorcycle umbrella – from dirt bikes and touring bikes, to choppers and cruisers, to racing bikes and three-wheelers (ok, we’re kidding about that last one.  Not that they don’t exist, but we’re not counting them here.) – there are Harleys and Indians, Triumphs and Ducatis, Hondas and Suzukis and Kawasakis.  And with half a million bikes on site, you could probably find at least one of just about any motorcycle on the road today, somewhere in Sturgis.

And we’d be remiss if we didn’t mention fuel-efficiency, so let’s mention that.  With all those different types of bikes, there’s a wide range of mpg, but if you were riding a Honda Rebel, for instance, you might be going 84 miles on every gallon of gas.  If your ride is a Triumph Thunderbird, your number could be 66 miles to the gallon.  And if you’ve got a Kawasaki Z125, sitting out front, that’s 100 miles to the gallon.  Smart and cool – that’s a pretty good combination.

We’d also be remiss if we didn’t give you one last taste of Sturgis 2018.  There was a LOT of live music – but we’ll just say it, one of those bands gave us the best motorcycle song ever.  And while it IS too late to hear Steppenwolf in Sturgis, we can still listen to (yeah, you know what’s coming):  Born To Be Wild.

Kevlar: From lab accident to life-saving miracle

“When I walked into the emergency room, the doctors and nurses were surprised because they were told an officer was shot in the head.  Imagine their surprise when the officer walked in because of the Kevlar® in his helmet.”

That’s Cincinnati police officer Daniel Kowalski, telling his story of one night on duty in December 2009.

“I was part of the SWAT team…making entry into an apartment for a homicide suspect.  The suspect fired two shots from a 9mm handgun…If I had not worn the helmet that was made with Kevlar®, I would have had two 9mm rounds in the right side of my head just above my right ear.”

“I should be six feet under and not writing this story.  My life was saved by Kevlar®… I am around today to watch my four daughters grow up and live life.”

And THIS story, is the story of how a lab accident led to that miracle.

Stephanie Kwolek was a chemist working for DuPont.  Her project in 1965, was to come up with “something” to make tougher tires.  A fiber strong enough to replace the steel wires that were used back then.

One day in the lab, like many other days in the lab, she was dissolving polymers (plastics, from petrochemicals) in a solvent, looking for that “something” — when something happened.  Instead of getting thicker and thicker, which was the usual outcome, this solution got thinner and more watery.

Kwolek knew she had something out of the ordinary, but she had to talk one of her colleagues into finding out just what – by putting that solution in a “spinneret” (which spins liquid polymers into fibers).

“We spun it, and it spun beautifully,” Kwolek said.  “It was very strong and very stiff, unlike anything we had ever made before.”

So tough, it was five times stronger than steel, pound for pound.  So tough, that DuPont had to get a new machine to test how strong it was.  And so tough, that since it’s been used to make body armor, it’s saved the lives of thousands of police officers.

Like the life of David Spicer.

“Police officer David Spicer was wearing a Kevlar® vest when he was shot by a drug suspect in 2001…Spicer took four .45-caliber slugs to the chest and arms at point-blank range and lived to tell about it.”

“The last one hit his nametag, bending it into a horseshoe shape, before burrowing into his vest, leaving a 10-inch tear.  ‘If that round would have entered my body, I wouldn’t be talking to you right now,’ the Dover police officer said.

“While recovering from his wounds, Spicer spoke briefly by phone with Ms. Kwolek and thanked her.  ‘She was a tremendous woman,’ he said.”

So what makes a miracle?  Kevlar® is made from aramid fiber, which is made from benzene and xylene, two key petrochemicals – and petrochemicals, are the chemicals produced by breaking apart or physically separating molecules found in petroleum or natural gas.  So while Kevlar® is not found in nature, it IS produced from what nature has given us.

What makes this particular polymer so tough, is that it’s made of long chains of molecules, that all run parallel to each other, and are tightly, very tightly, bonded together.  So when something hard and fast, like a bullet, hits Kevlar®, instead of breaking them apart, that force is spread across all those chains of molecules, soaking up the impact.  One chemist said it’s “like a net catching a ball.”

Like this.

“Investigator Kyle Russel was attacked during a routine traffic stop on a highway outside of Washington, DC, in September 2008.  As Investigator Russel approached the vehicle, the driver grabbed a .45 caliber pistol and shot Russel in the chest.  When he reported the shooting to police dispatch, he said, ‘I’m okay.  I think the vest got it.’”

Or like Officer Kowalski, sometimes the helmet “got it”.

THIS Kevlar® helmet, was worn by a member of the Orlando PD SWAT team, that went in after the shooter at the Pulse nightclub back in 2016.  49 people had already died inside, when the killer came out shooting at officers.  One of those officers was Michael Napolitano, and that was his helmet.

The shooter was killed.  And as the Orlando Police Chief reported, “Spoke with our officer, he is ok…not seriously injured.  Kevlar helmet saved his life.”

For anyone in harm’s way, Kevlar® really can be a life-saving miracle.  So maybe it’s no surprise, that when Kwolek died four years ago, the U.S. Army tweeted this:

“Rest in peace, Stephanie Kwolek. Thank you for inventing Kevlar and saving Soldiers’ lives.”  — U.S. Army (@USArmy) June 20, 2014

3 innovations set to make your car’s engine cleaner, more efficient

The internal combustion engine (aka, the thing under the hood of most cars) started taking shape in the 1700s, so it’s been around for a while.  But that doesn’t mean it’s been standing still the entire time.

Engines have gotten bigger – like the V-12 in your Ferrari or Lamborghini.  Engines have gotten smaller – like the wee two-cylinder powering up a lawn mower.  Engines have gotten cooler – like the V-8 in a Corvette or a Mustang.  And engines have gotten weirder – like the Lancia Delta S4 (which really, looks like a droid more than an engine).

Engines have also gotten more efficient and cleaner over the years – and another round of those improvements is on the way.  Which is good news, because that means the cars most of us drive today – and the cars most of us are going to be driving tomorrow – are going to use less gas, and produce fewer emissions.

First, Mazda announced a “new compression ignition engine…20 percent to 30 percent more fuel efficient than the…automaker’s current engines,” according to Reuters.  Like a diesel engine, it uses compression to ignite the fuel, rather than spark plugs.  Unlike diesel, the new engine runs cleaner and adds the spark plugs back in, for use when they are more effective, like driving in low temperatures.

Second, Rolls Royce announced a new turbocharger, with an electric boost.  Electrically-assisted turbocharging makes for an engine that responds more quickly and uses fuel more efficiently – which is a pretty ideal combination for anything powered by an engine (and this engine can be used on land, in a boat, and in emergency generators).

And last, a team of researchers from around the country, led by the University of Houston, announced that it’s working to develop a new catalytic converter (aka, the thing under the car that turns engine exhaust into nitrogen and oxygen, water and carbon dioxide).  That’s a good thing twice over:  a better catalytic converter means cleaner air, but it turns out that some next-generation engine technologies may require a next-generation converter too.

Now, you can’t walk into a showroom and find any of this yet.  But these are all based on real-world technologies – and long before you’ll be asking Scotty to beam you up, you’ll be out in your new ride.

Oil That Battery!

Tired of waiting – and waiting, and waiting for your phone or laptop battery to charge up?

Try adding a little oil.

Ok, at home – but researchers led by a team at Rice University have found that asphalt (made from petroleum) added to those lithium batteries – speeds up charging 10 times, even 20 times faster.

How cool is that?  This cool: “The capacity of these batteries is enormous, but what is equally remarkable is that we can bring them from zero charge to full charge in five minutes, rather than the typical two hours or more needed with other batteries.”  That’s Rice professor James Tour, speaking to Futurity.org.

Want even better?  A side benefit of the new combination battery, is that it prevents “dendrite formation.”  Significant, because, as Futurity puts it, dendrites “invade a battery’s electrolyte … and can cause the battery to fail, catch fire, or explode.  But the asphalt-derived carbon prevents any dendrite formation.”

Oh, and the asphalt/lithium battery – is easier to produce and costs less too.

So jump a short distance into the lithium-asphalt future – and if you drain the battery on your phone watching a movie or a game –  take a popcorn break, plug in your phone – and by the time you’re back, so’s your phone.  Thanks asphalt!

“Make mine seawater” (petrochemicals make desalinization practical)

“Water, water every where,

Nor any drop to drink”

(Which, as it turns out, is how the Rime of the Ancient Mariner actually puts it – though most of us have probably heard it as “and not a drop to drink”.)

In the poem, it’s the plight of sailors adrift in the ocean, literally on a sea of water, but suffering from thirst, because you can’t drink seawater.

But that was then (1797, to be exact).

Now we can (thanks to desalinization, taking the salt out of sea water).  And that is a good thing, because now it isn’t just sailors at sea who need water – it’s hundreds of millions of us on land too – people who live in places where traditional sources of water are falling short.

But desalinization traditionally uses massive amounts of energy (which also makes it massively expensive).  And that, is why even in cities by the sea, we don’t see much desalinization today.

Now comes a new technology, a membrane for filtering seawater that mimics the membrane of a living cell.  This new filter doesn’t require forcing the water through it (which is what takes all that energy and costs all that money) – but still does the work of producing clean, drinkable water – straight out of the sea.

But this new membrane has another plus as well.  It turns out that seawater has a lot of lithium in it, and this new process can filter out that lithium.  That’s good because this is the same lithium that goes into lithium-ion (Li-ion) batteries – the batteries that run laptops when they’re not plugged.  Also cell phones, tablets, digital cameras, and cordless power tools (like sanders, drills, hedge trimmers).  And yes, electric car batteries too.  Which means, like clean drinking water, the demand for lithium is also putting pressure on the supply.

So you might say truly, this is a magic membrane, that might be the answer to two critical shortages at once.  And the starting point for this magic – is toluene.  Now, if you don’t know what that is, you’re not alone.  Toluene is a petrochemical, made from petroleum, working quietly in the background.  In this case, toluene is used in step one of a series of chemical reactions, which eventually gets us to a zeolitic imidazolate framework, which is the basis of the new membrane filter.

And that – could get us to a virtually inexhaustible source of fresh drinking water (and a lifetime supply of cellphone batteries).  Guess it’s a good thing oil and water don’t mix.

“Make mine seawater” (petrochemicals make desalinization practical)

“Water, water every where,

Nor any drop to drink”

(Which, as it turns out, is how the Rime of the Ancient Mariner actually puts it – though most of us have probably heard it as “and not a drop to drink”.)

In the poem, it’s the plight of sailors adrift in the ocean, literally on a sea of water, but suffering from thirst, because you can’t drink seawater.

But that was then (1797, to be exact).

Now we can (thanks to desalinization, taking the salt out of sea water).  And that is a good thing, because now it isn’t just sailors at sea who need water – it’s hundreds of millions of us on land too – people who live in places where traditional sources of water are falling short.

But desalinization traditionally uses massive amounts of energy (which also makes it massively expensive).  And that, is why even in cities by the sea, we don’t see much desalinization today.

Now comes a new technology, a membrane for filtering seawater that mimics the membrane of a living cell.  This new filter doesn’t require forcing the water through it (which is what takes all that energy and costs all that money) – but still does the work of producing clean, drinkable water – straight out of the sea.

But this new membrane has another plus as well.  It turns out that seawater has a lot of lithium in it, and this new process can filter out that lithium.  That’s good because this is the same lithium that goes into lithium-ion (Li-ion) batteries – the batteries that run laptops when they’re not plugged.  Also cell phones, tablets, digital cameras, and cordless power tools (like sanders, drills, hedge trimmers).  And yes, electric car batteries too.  Which means, like clean drinking water, the demand for lithium is also putting pressure on the supply.

So you might say truly, this is a magic membrane, that might be the answer to two critical shortages at once.  And the starting point for this magic – is toluene.  Now, if you don’t know what that is, you’re not alone.  Toluene is a petrochemical, made from petroleum, working quietly in the background.  In this case, toluene is used in step one of a series of chemical reactions, which eventually gets us to a zeolitic imidazolate framework, which is the basis of the new membrane filter.

And that – could get us to a virtually inexhaustible source of fresh drinking water (and a lifetime supply of cellphone batteries).  Guess it’s a good thing oil and water don’t mix.

Why wind and power depends on petroleum and natural gas

What keeps a wind turbine turning?

Yes, it’s a trick question.

You need a good breeze, of course – but there’s something else that’s essential, something that you might not associate with wind power. And that something, would be oil or natural gas. Yep. Wind power depends on the hydrocarbon.

That’s because inside those turbines are gears, axles, a generator – all sorts of moving, turning parts – and moving parts need lubrication – and lubrication means oil. Which shouldn’t be surprising. Petroleum products are in all sorts of other products, including other sources of energy.

And those moving parts? The windmill blades have been getting longer and longer, which is good for the work of catching the wind – but the only way to make blades like that, is through carbon-reinforced resins made from petrochemicals.

Wind power in the U.S. produces about 5.5% percent of our electricity these days, so long as you’ve also got the oil to keep those turbines lubricated and running (and to make those wind-catching blades).

Why wind and power depends on petroleum and natural gas

What keeps a wind turbine turning?

Yes, it’s a trick question.

You need a good breeze, of course – but there’s something else that’s essential, something that you might not associate with wind power. And that something, would be oil or natural gas. Yep. Wind power depends on the hydrocarbon.

That’s because inside those turbines are gears, axles, a generator – all sorts of moving, turning parts – and moving parts need lubrication – and lubrication means oil. Which shouldn’t be surprising. Petroleum products are in all sorts of other products, including other sources of energy.

And those moving parts? The windmill blades have been getting longer and longer, which is good for the work of catching the wind – but the only way to make blades like that, is through carbon-reinforced resins made from petrochemicals.

Wind power in the U.S. produces about 5.5% percent of our electricity these days, so long as you’ve also got the oil to keep those turbines lubricated and running (and to make those wind-catching blades).

The World’s Biggest Engine

707 horsepower.  That’s what’s under the hood of the Jeep Grand Cherokee Trackhawk.

Fill ‘er up with 100 octane, and you can get 840 horsepower out of a Dodge Challenger SRT Demon.

Or (if $2.5 million is burning a hole through your pocket), you could be driving a Bugatti Chiron, with 1,479 horsepower at your fingertips.

And those are all impressive engines.

Until you see this.

That’s the look of 109,000 horsepower.  The biggest engine in the world.

Now it’s true, since it weighs 2,300 tons, stands 44 feet tall and is 90 feet long – you’re not going to find the Wartsila RT-flex96C in a car, any car, ever.

But what the world’s biggest engine DOES run – are ships.  Some of the world’s biggest ships, naturally.  Like the Emma Maersk (which actually was the world’s biggest container ship, when it was launched.)

But big as it is, inside the RT-flex 96C has a crankshaft, pistons…

…cylinders (14 of them), a diesel engine (with some tweaks) like the diesel engine in a car or a truck, running on diesel fuel (with some nautical tweaks).

So even though you’d have to look hard to find this (the Bugatti’s W16 engine)…

…next to this (the RT-flex 96C, installed on board)…

…the principles of the internal combustion engine are at work just the same, on land and sea.  And they both run on diesel fuels, produced from petroleum.

Now if you’d like to see the Bugatti, or the Dodge, or the Jeep, head down to your nearest dealership.  And if you can see what the Emma Maersk is up to, right now, or anytime, try VesselFinder.

(Sorry though, if you’d like to get the feel of 109,000 horsepower, you’ll have to start by applying to the Merchant Marine Academy.  The Emma Maersk, unlike the cars, is not for sale.)

Say goodbye to the plaster cast

It started with the story of a baby girl who was born with a hip problem (“hip dysplasia,”). Her “treatment,” which began at three months, involved being hung upside down so that her leg would pull out of its wrong position – something so painful, she had to be given morphine.

Next in this six month regimen, her legs were put into plaster casts, with a wooden bar from left foot to right foot, to keep her from moving.  As she grew, every six weeks she went back into the hospital to have the old casts cut off, and to have new casts and a bar put on.

In the end, the outcome was successful. But not surprisingly, her dad wondered if there was something better.

Now, Ron Taylor and his colleagues at Torc2 (Coventry, England) have come up with that something better: a novel blend of petroleum-based wax and thermoplastic for casts, splints, even the connectors for prosthetic limbs.

They started with thermoplastic, because it softens when heated, but becomes solid when cool.  This particular thermoplastic blend can be warmed on a person’s body, in just the spot where a cast is needed, for example.  Then while it is soft, the doctor can shape it to a perfect fit.  And when it cools down, that plastic cast is solid and sturdy and ready to protect that broken arm or leg.

And why the wax?  Because heating thermoplastic on a person’s arm or leg might burn the skin.  Blending in that wax, means the plastic can be warmed and softened at a lower temperature that is safe for patients, while still allowing it to be molded precisely to where it is needed.

These high-tech thermoplastic blends can be heated, shaped and cooled to solid, over and over again – so adjustments as a baby girl grows, for example, don’t require returning over and over again to an operating room.  And reshaping, instead of replacing casts, will not only be simpler to do, it will be much less expensive for patients as well.

Thermoplastic blends make the new treatments possible, and what makes thermoplastic blends possible, are petroleum and natural.

Say goodbye to the plaster cast

It started with the story of a baby girl who was born with a hip problem (“hip dysplasia,”). Her “treatment,” which began at three months, involved being hung upside down so that her leg would pull out of its wrong position – something so painful, she had to be given morphine.

Next in this six month regimen, her legs were put into plaster casts, with a wooden bar from left foot to right foot, to keep her from moving.  As she grew, every six weeks she went back into the hospital to have the old casts cut off, and to have new casts and a bar put on.

In the end, the outcome was successful. But not surprisingly, her dad wondered if there was something better.

Now, Ron Taylor and his colleagues at Torc2 (Coventry, England) have come up with that something better: a novel blend of petroleum-based wax and thermoplastic for casts, splints, even the connectors for prosthetic limbs.

They started with thermoplastic, because it softens when heated, but becomes solid when cool.  This particular thermoplastic blend can be warmed on a person’s body, in just the spot where a cast is needed, for example.  Then while it is soft, the doctor can shape it to a perfect fit.  And when it cools down, that plastic cast is solid and sturdy and ready to protect that broken arm or leg.

And why the wax?  Because heating thermoplastic on a person’s arm or leg might burn the skin.  Blending in that wax, means the plastic can be warmed and softened at a lower temperature that is safe for patients, while still allowing it to be molded precisely to where it is needed.

These high-tech thermoplastic blends can be heated, shaped and cooled to solid, over and over again – so adjustments as a baby girl grows, for example, don’t require returning over and over again to an operating room.  And reshaping, instead of replacing casts, will not only be simpler to do, it will be much less expensive for patients as well.

Thermoplastic blends make the new treatments possible, and what makes thermoplastic blends possible, are petroleum and natural.

The wheels on the bus make the world go round

25 million kids get to school each day (and home again) on a school bus.

And how do those school buses get to school? Almost every one of them is fueled by diesel.

Yep, without the diesel fueling these buses, a lot of parents would be scrambling to get their kids to and from school about 180 days a year (your average school year).

That’s a lot to be thankful for right there (especially for the kids that don’t really have a Plan B for getting to school otherwise).

But it turns out there’s other good news about school buses.

Like this (don’t take it personally): “Students are about 70 times more likely to get to school safely when taking a school bus instead of traveling by car,”* according to the National Highway Traffic Safety Administration.

And did you know about the “school bus effect?” It turns out that school buses not only help kids get to school, they help kids STAY in school. From EdSource, “Students who ride the school bus in the critical first year — kindergarten – are absent less often and have lower odds of being chronically absent, a key indicator of future academic success…”**

Not bad for a big yellow bus.

It could be that one day, very far in the future, kids will get to skip over the bus stop by strapping on their jet packs and flying off to school. And no, they will probably never step into the transporter room at home and get beamed to school (although that would make life a lot easier when they forget their homework or their lunch. Just beam over a couple of PB&Js.)

But the future – tomorrow, and as a practical matter, for years to come– is probably going to look pretty much like today. Which is to say, if your kids ride a bus to school, chances are, it’ll be running on diesel fuel. And it’ll be yellow.

If George Jetson had been a farmer…

Driverless vehicles are headed off road.

Not for recreation though.  This is all about work, because these driverless vehicles are farm tractors.

Yes, the driverless tractor is coming to a furrow near you.  Mahindra is bringing the first version to market next year – starting in India, and then available worldwide.

Like the driverless car, in the beginning the farmer will be the “driver”, but not driving.  Next stage will be the remote-operated tractor; and in the end, the tractor will be programmed to head out on its own in the morning, and come back when the day’s work is done.

There is plenty of work on a farm that requires a farmer’s touch.  But driving a tractor back and forth across a field, and another field, and another – doesn’t have to be in that category.  The driverless tractor just frees up the farmer for all the other work that nobody but she, or he, can do.

As you’d expect with any driverless vehicle, Mahindra’s tractor uses GPS to steer itself – but being a tractor, it faces some challenges you don’t see much on your typical street.  So this tractor can reach the end of a crop row, turn, and head precisely back down the next row – row after row after row.  And when it makes each turn, this tractor can lift the plow or harrow or whatever tool it is using, make the turn and drop it back down in the next row.

And, if you’re envisioning a rogue tractor, something out of a Stephen King novel – not to worry.  These tractors feature a geofence lock, so they can’t go beyond the boundaries of the farm, and a remote off switch, so a farmer can stop the engine and the tractor, should there be an emergency.

It’s in the bag (the big orange recycling bag)!

Odds are, there’s some sort of recycling program where you live – newspapers and cardboard.  Cans, glass bottles, plastic bottles.  There is for most of us these days.

It does make sense – we get a second (or third or fourth) use out of perfectly good materials.  So after finishing a bottle of juice, for instance, that old bottle can be turned into a new bottle – or a musical instrument, or cool flip flops, or the seats in a new car.

But there are some plastic materials that are tough to recycle – like potato chip bags and juice boxes – and how to give those a second life, that took some creative thinking.

And the result of that thinking (yes, it’s been done now) is, ta-da:  a big orange bag!

Now if you’re thinking, “Wait, what?”  Here’s what that means (and why it’s such a good idea).

High on that list of plastics which could be reused, but aren’t easy to recycle – are things like potato chip bags and juice pouches, which are also things a lot of us use (especially if you have kids).  Enter Dow Packaging and Specialty Plastics, and the “Hefty EnergyBag” program (aka, the big orange bag).

The idea was, give every household a roll of the orange bags.  Like this…

Then along with whatever you normally you recycle, you also put out an orange bag with those “difficult” plastics.

…like those.  Your orange bag gets picked up along with your regular recycling.  But then – those bags are taken away for separate processing, using equipment that can handle those special items.

That was the idea. Now it’s been tested in pilot programs around the country – cities like Boise, Idaho; Omaha, Nebraska; Citrus Heights, California – and, it works!  So far, more than 88 tons worth of plastic has been picked up and reused, that would otherwise have wound up in landfills (that’s more than 135,400 big orange bags worth).

So now you’re thinking, “That’s good – but what do they do with that stuff, if it’s so hard to recycle?”  That’s in the pilot stages too – but one day, you might be riding to work on the answer.  Because one answer is – converting that plastic to diesel fuel, for use in buses, and trucks and cars.  (The process is called pyrolysis technology, and if you really want to know more about that, we have to send you over to Wikipedia.)

And yeah, reusing valuable natural resources?  Keeping what we’ve already used out of landfills?  That IS good.

Recycling old plastic bottles into new pavement

What’s the BPM where you live?

Ok, we’re a LITTLE ahead of ourselves – but one day soon, “Bottles Per Mile” may be how we talk about paving our streets and highways – as in, how many recycled plastic bottles are needed for each mile of pavement.

BPM doesn’t exist, yet.  But actually, recycling plastic bottles for paving roads – that is definitely happening now – in the UK and Canada, New Zealand and Australia, and in India, where the idea was first, ummm, uncapped?

Plastic to pavement makes plenty of sense.  The strength and durability of plastic bottles, which makes them good for our drinks the first time around – makes that same plastic an excellent choice for reuse.  And since not all of us are recycling our empties, finding a use for the ones that get tossed, that’s smart too.

The new generation of “plastic parkways”, is driven by a Scottish company, MacRebur.  And as they told CNN, their “recipe” uses about 20,000 plastic bottles-worth of plastic for every ton of asphalt.  Appropriately enough, finding the right mix of plastic to asphalt does sound like something out of “the Scottish play” (Macbeth) – hours of stirring big kettles (“Double, double, toil and trouble/Fire burn and cauldron bubble”).*

But unlike Macbeth, all that “toil and trouble” turned out well (maybe because they weren’t cooking up “eye of newt and toe of frog” – just pieces of plastic).  This new pavement is about 80 percent asphalt, and 20 percent of the recycled plastic.  The Scots say that the result is sixty percent stronger than a conventional road surface, and they project that it will last two to three times longer (“project”, because this is too new to have a long history out in the field).

That not only makes transportation engineers happy, fewer potholes (that STRONGER surface) is good news for everybody who fastens a seatbelt.  And maybe it just goes to show how much we can do with petroleum:  we can not only make the fuels our cars run on, we can use it to make the roads our cars drive on, and the tires our cars ride across those roads on, and…well, you get the idea.

So maybe Sting was right.  There really IS a message in a bottle.

 

It’s recycling time – really

We told you recently about the Ocean Cleanup Project – “a sort of giant plastic broom”, to sweep up plastic trash that’s now floating in the ocean.  That “broom” is out in the Pacific now on its trial run.  But after plastic is scooped up out of the water, then what?

Well, how about…

(Photo from Awake Watches)

…a very cool looking watch?

That would be the Awake watch – made with recycled plastic, recycled metal and – running on solar power.  Elle proclaimed, “This sustainable watch brand will be a smash hit.”  BuzzFeed wrote, “Awake creates flawless watches with the best solar energy.”  And they liked it on Kickstarter, where it was fully funded in just one hour.

Now, plastics are remarkable materials.  From plastics, you can make something transparent or opaque, clear or any color of the rainbow, something hard, something soft, something flexible, something stiff, something that can withstand intense heat or something that you can reshape in the warmth of your hands.  You can make a prosthetic hand or an entire exoskeleton.  You can make a package for strawberries or you can make the body of a car.

But you can also REmake all those plastics into something else, when that first something is used up, worn out.  And that’s one more thing we like about Awake – it’s a very stylish wake-up call, that our empty plastic water bottles aren’t trash, they’re raw material.

What’s even better than beer? Cement – at least in the fight against global warming

We told you recently how beer might save the planet (by helping to reduce the amount of CO2 (or if you prefer, carbon dioxide) which is going into the atmosphere, and warming up the planet).

Now, you can add cement to that list of planet-savers.

Ok, so cement as a subject is not as interesting as beer – and unless you’re in the construction business, odds are you’ve probably never ordered a round of cement.

But if there were a popularity contest, cement beats beer, hands down.  In fact, we humans “consume” (that’s the word from the statisticians, but “use” sounds better) more concrete than any other substance but one (water).  And the main ingredient of concrete is:  cement.

Case in point;  last year, we went through more than 4,600 MILLION TONS of cement – which is a lot of anything.  But that also means, when there is good news about cement – it’s a lot of good news.

And in this case, the good news is about reducing CO2 emissions by – using some of that carbon dioxide to make cement.

A research team at UCLA is developing the new approach.  Everything about this idea of “capturing”* carbon dioxide emissions is relatively new – but what makes the UCLA approach newer still is first, their idea to use that CO2 to make something new, to think of that carbon dioxide as a raw material (instead of just storing the CO2 in some way), and second, their idea to use that CO2 to improve an existing product, in this case, cement.

They believe their new material, which they call CO2NCRETE™, has the potential to be stronger than today’s cement/concrete (thanks to the carbonation).  And while it could be poured out of a cement mixer, just like the ones we see on construction sites all the time – the new material could also be put to work with different techniques, like 3D printing.

The next step, taking CO2NCRETE™ out of the lab, and lab sizes, like this…

…and making something big enough to build with. Something like this maybe…

(One of the world’s great concrete structures, the dome of the Pantheon in Rome.)

But it all starts with a new way of thinking about an old problem:  what do we with our trash.  And the new solution, whether that “trash” is CO2 being released into the air, or plastic bottles getting tossed in the ocean – is thinking of that “trash” as raw material, as a resource to make something new with.

*”Capturing” carbon dioxide means – when an industrial process, like making cement or producing power, produces CO2, instead of allowing that to go up a smokestack and into the air, the carbon dioxide is pulled out and then either stored, or used again.

Why Do Veterans Find A (Civilian) Home in the Fuels & Petrochemical Industry? Ask a Vet!

Imagine you are a 19-year-old – and your job is leading a squad of Marines in combat in Iraq.

Or picture coming straight out of high school and serving six-month tours at sea on a Navy ship, on counter-terrorism duty aboard a guided-missile frigate.

That experience can make your next job, a civilian job when you leave the service, a tough adjustment. Almost everything can feel different – the pace of the work, the meaning of the work, the commitment to the work, the people you work with. (Tough enough, in fact, that some veterans like to say your first successful civilian job is your second civilian job.)

We talked with a couple of vets recently to learn more about their transition out of uniform and into civilian life, and how they found that “second” job in the fuels and petrochemical industry with Phillips 66.

Today, Andrew Kiefer McNeill is a Territory Manager with Phillips 66 in Houston. But he was once that 19-year-old Marine going from Parris Island to two tours of duty in Iraq.

His unit, First Marine Division (the most decorated division in the Corps), was in Tikrit, Fallujah, Baghdad – names we came to know all too well.

Along with the days of boredom and misery that every soldier slogs through, “There are the days when, barely done being a kid, you are leading a group of men older than you who are depending on you to lead them through that day’s fighting, that tour’s mission, and home again.”

Which he did. McNeill didn’t go straight home after his tours of duty. He instead took off backpacking around the world and then to college where at 22, and an ex-Marine, “I felt like the world’s oldest student, sitting with 18-year-olds straight out of high school.”

Chad Harbin was an 18-year-old, straight out of high school in 2001. That was the year of 9/11 – and instead of a college classroom, he went to see a Navy recruiter to enlist.

These days, Harbin is a pressure equipment Inspector at the Phillips 66 Wood River Refinery in southern Illinois. But for six years after 9/11, his “office” was out at sea, on the USS Crommelin.

On a ship you live where you work, for six months at a time. And where you work for those six months, is a space about a football field-and-a-half long and 45 feet across. Your workplace has desks, chairs and computers, but it also comes with torpedoes, missiles and a couple of helicopters. In Harbin’s case, you have a couple hundred “co-workers,” who all depend on you to keep them going out in the middle of the ocean.

The job Harbin worked his way up to was “operating the power systems that ran – everything:  the ship’s engines, its weapons, its navigation gear, even its kitchen.” He was good at his job too, but eventually he became homesick and decided after six years to come back ashore.

In his exit interview (yes, it turns out the Navy has those too) his commanding officer (CO) told him that usually this was the moment he’d try to talk a good sailor (like Harbin) into staying. But his CO said that if Harbin wanted to go, he’d do just fine out there in the civilian world.

Once he started his first job though, Harbin wasn’t so sure. He’d been keeping a warship safe and afloat. He knew the power systems of a guided missile frigate inside and out. He was literally a defender of the free world.  And now he had a job that was – well, just a job.

McNeill knows that feeling too. “You have a job where you feel like you are making a difference, where you’re part of something bigger than yourself, that you are someone special and then, you end up as nothing.”

That’s when Phillips 66 entered the picture. Harbin had friends who worked at the Wood River Refinery and told him the refinery was hiring. McNeill had been laid off after the company he worked for was sold and agreed to meet up with a Phillips 66 rep at a “Hiring Our Heroes” event.

“Today, about 20 percent of the workers we hire for hourly positions are veterans,” said Jonathan Rosenberg, Manager, Talent Planning & Acquisition, Phillips 66, “and that’s not by chance.  We do targeted outreach to veterans, which includes using vets who are already here, working for the company.“

As Harbin explained, that’s a big deal. “It can be tough for a veteran to explain to a civilian what he or she did in the service and how that translates to a new job. It was a big sense of relief when I was interviewing and found myself talking to an ex-Navy man, who didn’t have to be told how running the power systems on a ship was very much like the work at a refinery.”

For McNeill his “fairy godmother” was an HR Team Member at Phillips 66 who saw something special in him. She marched him and his resume past the standard interviews and took him directly to the people doing the hiring, and she stuck with him until he was in.

Phillips 66 also re-educates its hiring managers, teaching them how to interview veterans like Harbin and McNeill, and how to “translate” their skills and experience to the needs of the company. There’s also a “veterans’ portal” on the Phillips 66 website, where a veteran can plug in his or her skills to see how they would fit-in. When veterans start their new jobs at Phillips 66 the company connects them with an internal group of ex-servicemen and women in the company, who work with the new hires to make that transition successful.

That commitment to hiring veterans helped bring Harbin and McNeill into Phillips 66. But what helped keep them there was a different sort of commitment on the part of the company.

Chad Harbin described it as “a similar sense of purpose.  In the Navy, I looked after the power systems my shipmates depended upon – at the refinery (which is like a small city), my co-workers and our plant’s neighbors count on me to keep it running and keep it safe. At Wood River, part of my job is making the decision to shut down the whole plant, if that’s needed to keep things safe.”

Not everyone wants that level of responsibility – but Harbin walked through the refinery gate ready to be that guy, because he already had been that guy. And being “that guy,” Harbin said, means “I can shut down the whole plant if something isn’t safe.”

McNeill actually started out as a skeptic, not sure that Phillips 66 was really interested in vets, and him in particular. As he put it, “We walk out of the military into the civilian world feeling like the world owes you something, but the world doesn’t owe you anything.” But his Phillips 66 experience showed him the company was serious about veterans. And he tells vets now who are thinking about getting into the industry to just do it, “You can find a similar sense of purpose that you had in the service, though you do have to check your inner ‘drill instructor’ at the gate.” (Civilians, he’s learned, aren’t Marines.)

Both men found that at a company whose values are “safety, honor, commitment,” where you are expected to do the right thing, where there is a sense of family among employees – that working for Phillips 66 has been that “second successful job” out in the civilian world.

And for Phillips 66, veterans bring first-rate skills that fit right into the industry. They also bring a willingness (and a capability) to take on responsibility and an ability to lead, an attitude that whatever task you start, you’re not done till it’s done, and a vast experience of problem-solving, even under unusually difficult conditions.

Oh, and maybe one other quality as well:  a sense of perspective. As McNeill says, when you’ve been under fire in a combat zone, “OMG, I dropped my phone, or Oh no, I got a flat tire – just aren’t that big a deal anymore.”

A History of Firsts Has Led to Today’s Smart Cities

1844: First Telegraph Message Sent

Samuel F. Morse sends the first electric telegraph message, “What hath God wrought?” from Washington, D.C. to his assistant in Baltimore. It marks the beginning of a new era of communication in which information travels faster than humans. 

1858: First Transatlantic Telegraph Message 

Initially decried as a hoax, the first transatlantic telegraph message is sent between London and New York City. Shortly thereafter, Queen Victoria sends a telegraph of her own to President Buchanan. It takes 16 hours to transmit. 

1863: The Metropolitan Railway Opens 

The world’s first mass transit system, the Metropolitan Railway, opens in London. On its inaugural day, it carries 38,000 passengers between Paddington and Farrington on gas-lit wooden carriages hauled by steam locomotives. 

Source: Transport for London

1876: The Telephone Arrives

Alexander Graham Bell unveils his telephone at the Philadelphia Centennial Exhibition, placing it on opposite ends of the exhibition hall to showcase the human voice being transmitted by cables. 

 

1878: Paris Becomes the “City of Lights” 

As part of the Exhibition of 1878, electric arc lights are placed along the Avenue de l’Opéra in Paris, making it the first city to feature an electric lighting system and earning it the nickname “The City of Lights”. 

 

1882: Pearl Street Station Power Plant 

The Edison Illuminating Company, headed by Thomas Edison, opens Pearl Street Station, the first commercial central power plant in the world. Powered by steam, the New York City plant initially provides electricity to 400 lamps for 82 customers. 

Source: GridCo Systems, 2017

1884: New York City’s First Solar Panels 

Charles Fritt, inventor of selenium cells, installs the first solar panel array on a building in New York City, bringing solar power to the Big Apple before all of the city even has electricity.

 

1885: Holland Pioneers the Bike Lane

Utrecht, Holland opens the world’s first dedicated bicycle lane to the public, inspiring similar projects in Brooklyn, NY and Brussels, Belgium. With over 56,000 miles of dedicated bike paths used by 36% of its population, modern-day Holland is widely considered the world’s most bike-friendly nation.  

Source: Dutch Biking Council

1901: Marconi Transmits Across the Atlantic 

Italian physicist and radio pioneer Guglielmo Marconi sends the first radio transmission across the Atlantic Ocean. Detractors say the curvature of the earth would limit transmission to less than 200 miles, but Marconi’s message, the Morse Code signal for the letter S, travels more than 2,000 miles from Cornwall, England, to Newfoundland, Canada. 

Source: History.com

1913: Ford’s Assembly Line Starts Rolling 

The first moving assembly line car manufacturing plant is opened by Henry Ford outside of Detroit. The mass production of cars introduces personal transportation to the mass market. 

 

1925: Houdina Drives 1st Radio-Operated Car

Houdina Radio Control Company drives a radio-operated automobile, a 1926 Chandler, through New York City traffic. Using a transmitting antenna, the car is operated from a second vehicle that follows it with a transmitter. The radio signals operate small electric motors that direct every movement of the car. 

 

1927: Jacobs Brothers Wind Turbine 

Marcellus and Joe Jacobs develop the first commercial wind turbine in Montana. The brothers sought to bring the urban conveniences of electricity to farmers who couldn’t afford gas generators. Today, Jacobs Wind is the oldest renewable energy company in the U.S. 

 

1932: The Autobahn Connects Bonn to Cologne 

Bonn and Cologne become the first cities in Germany to connect to the Autobahn, an early controlled access highway. The subsequent autobahns built throughout the country become the first limited-access high-speed road network in the world.

 

 

1936: BBC TV Launches

BBC Television Service officially launches. Its first large-scale live broadcast of the coronation of King George VI and Queen Elizabeth the following year showcases the medium’s potential for sharing live events with millions of people. 

 

1946: The First Computer

The Electronic Numerical Integrator and Computer (ENIAC) is switched on at the University of Pennsylvania. The first electronic computer, it weighs over 30 tons. ENIAC’s combination of speed and programmability is a tremendous resource to scientists and engineers, as the computer needs only 30 seconds to calculate a trajectory that previously took a human 20 hours to solve. 

Source: Computer History, Birth of the Computer

1954: World’s First Nuclear Power Plant

Obninsk Nuclear Power Plant, the world’s first grid-connected nuclear power plant producing commercial electricity, begins generating power near Moscow, USSR. 

 

1956: The Federal Highway Act is Signed

Inspired by the German Autobahn system that he saw during WWII, president Dwight Eisenhower signs the Federal Highway Act of 1956, authorizing construction of a network of high-capacity controlled access roads connecting major cities across the U.S. The roads allow Americans to reliably, safely, and quickly travel the county by automobile, leading to the decline of passenger railroads and the rise of suburbanization and “car culture.”

 

1960: Geysers Geothermal Energy Station 

Pacific Gas and Electric begins operating the first successful geothermal electric power station in the U.S. at the Geysers, the world’s largest geothermal field, located north of San Francisco. 

 

1963: Syncom 2 Satellite Goes Into Orbit

NASA launches Syncom 2, the first successful communications satellite, into geosynchronous orbit. President John F. Kennedy, in Washington, D.C, makes the first live two-way call between heads of government by satellite, to Nigerian Prime Minister Abubakar Tafawa Balewa. 

 

1964: High-Speed Rail Becomes Reality 

The Tōkaidō Shinkansen railroad line opens in advance of the 1964 Olympic Games hosted in Tokyo, Japan. The world’s first high-speed rail line, the “bullet train” travels at 130 MPH and inspires similar systems around the world. 

Source: Japan Times 2008

1968: Brazil Introduces the Curitiba Master Plan 

Curitiba, Brazil, begins implementation of a smart transportation initiative that favors walkability and rapid transit, the first time any city has undertaken such a project on such a large scale. Known as the Curitiba Master Plan, it redesigns city streets to minimize traffic, including giving express buses their own lanes. Today, Curitiba is considered one of the world’s best examples of urban planning. 

Source: Sustainable Urban Planning, Curitiba City

1969: MIT Sends the First Email 

The first electronic message between computers is sent on the campus of MIT using their Computational Time-Sharing System. Management of the system initially considers sending electronic “letters” to be a waste of resources. It would not be until Ray Tomlinson’s famous 1971 message via ARPANET that the technology’s applications were seriously considered. 

 

1973: Motorola Creates the Cellular Phone 

Martin Cooper, head of Motorola’s Communications Systems Division, makes the first cellular phone call. While walking down the street, he calls Joel Engel, his rival at AT&T who is working on a similar technology, to let him know that he has a functional portable phone. 

 

1974: L.A. Publishes First Urban Planning Report 

Los Angeles Community Analysis Bureau publishes “The State of the City: A Cluster Analysis of Los Angeles,” the first urban planning report using data gathered and interpreted by computers. Programmers use existing census data to better understand the demographics of the city and the cluster analysis to reveal correlations between data and social outcomes. 

 

1975: Combatting Congestion and Air Pollution 

The Singapore Area Licensing Scheme goes into effect across the city-state. Intended to reduce traffic congestion, improve air quality and boost ridership of public transit, it’s the first urban traffic congestion pricing plan in the world and inspires similar congestion charge programs in cities including London, Rome, and Bogota. 

 

1980: Nuclear Overtakes Oil 

For the first time, nuclear energy generates more electricity than oil in the U.S. 

 

1980: China Establishes Its First Special Economic Zone

The first of the five Special Economic Zones is established near the village of Shenzhen, China. Intended to act as laboratories of capitalism, these areas help launch explosive growth in the Chinese economy as the county embraces free-market policies throughout the ’80s and ’90s. 

 

1982: Solar One Power Plant 

The U.S. Department of Energy opens Solar One, the first test of a large-scale thermal solar power tower plant. 

 

1984: Competition Comes to the Telecom Industry 

In an effort to settle an antitrust lawsuit initiated by the U.S. Department of Justice, AT&T dissolves its monopoly of local telephone service in the U.S. AT&T had been the largest corporation in American history and dominated U.S. telephone service and hardware manufacturing. For the first time, the American telecom industry is open to competition, opening the door to a new era of innovation. 

 

1986: Motorola Launches Text Capable Pager

The Motorola Bravo pager goes on sale. While “beepers” had been in use by government, police, and medical personnel since the 1970s, the Bravo and its ability to store five 24-character messages brings this iconic tech into the mainstream for the first time. 

 

1988: “Cyberia” Internet Café Opens 

“Cyberia,” the world’s first internet café opens near Hongik University in Seoul, South Korea. Providing internet access at a time when computers and home access was prohibitively expensive, internet cafés surge in popularity around the world throughout the ’90s, introducing a generation to the wonders of the web. 

 

1991: Vindeby Offshore Wind Farm Completed

The world’s first offshore wind farm is completed off the coast of Denmark. The Vindeby Offshore Wind Farm consists of 11 turbines generating a collective 4.95 mW, fulfilling the annual power needs of 3,000 Danish homes. 

Source: South Baltic, Offshore Wind Energy Regions

1991: Highway Tolls Become Self-Serve 

The first use of completely unaided full-speed electronic tolling is used on a highway in Trondheim, Norway. Electronic tolling becomes prevalent around the world, allowing municipalities to charge tolls without vehicles having to slow down. 

 

1994: The Corporation for Solar Technology and Renewable Resources 

The first solar dish generator is tied to a utility grid. The Corporation for Solar Technology and Renewable Resources, a public corporation, is established to facilitate solar development at the Nevada Test Site. 

 

1995: The First Autonomous Car

A converted Pontiac Trans Port is the first vehicle to drive autonomously across the United States, from Pittsburgh to San Diego. It makes the culmination of over 10 years of research conducted at Carnegie Mellon University, and demonstrates the potential of autonomous vehicles. 

 

1997: The Prius Hits the Market 

Toyota releases the Prius, the first mass produced gasoline-electric hybrid car. Launched initially in Japan, the carmaker introduces the vehicle internationally in 2000. 

 

1999: The World Meets the Blackberry 

Canadian firm Research In Motion introduces the first Blackberry 850. Capable of accessing the internet, organizing schedules, and sending and receiving emails, BlackBerrys quickly become a hit with corporate executives and other professionals. 

 

2004: Fastest Commercial Train in the World 

The Shanghai Transrapid Maglev system begins operation. The first commercial application of its kind, the system connects downtown Shanghai with Pudong Airport 18 miles away using magnetic levitation trains that hover above the track. It is the fastest commercially-operated train in the world, capable of traveling at 268 MPH. 

Source: Shanghai Maglev Train

2006: Masdar City Construction Begins 

Construction begins on Madar City, UAE. It’s the first purpose-built city in the world created to rely on solar and other renewable energy sources. The city is designed to be a hub for cleantech companies. 

 

2007: Smartphones Enter the Market 

Apple introduces the iPhone, for the first time bringing smartphones out of the workplace and into the lives of consumers, leading to the rise of the “app economy.” One year later, Google releases its first Android smartphone, initiating a technology race that continues today. 

 

2008: Bahrain World Trade Center Opens 

Bahrain World Trade Center opens in Manama, Bahrain. The two towers are the first buildings in the world to include integrated wind turbines. Each structure has a 225 kW wind turbine capable of providing 11% to 15% of the towers’ total power needs. 

Source: E-architect, 2016

2009: Oslo’s Smart Lighting System 

Oslo installs a smart lighting system along city streets. For the first time, urban lighting can be dimmed or adjusted remotely according to the weather and movement in the area, and colored lighting can control the flow of traffic and pedestrians. Saved energy can then be used for other functions. 

 

2011: Heathrow Introduces Personal Rapid Transit 

Heathrow International Airport in London becomes the first airport in the world to feature Personal Rapid Transit, or PRT. The Ultra (Urban Light Transit) system connects several terminals with a remote parking lot by a miniature railroad piloted by automated podcars whose destinations are determined by riders. 

 

2012: Three Gorges Dam Completed 

The Three Gorges Dam spanning the Yangtze River is completed in Hubei Province, China. Capable of generating 22,500 mW, the hydroelectric power station is the world’s largest and an engineering marvel. 

Source: U.S. Geological Survey, 2016

2014: Free Wifi and Internet in New York City 

LinkNYC is created to provide free WiFi and internet access throughout New York City. Built atop the city’s obsolete payphone network, it’s on track to become the world’s largest public high-speed wireless network by 2020. 

Source: LinkNYC

2014: Tesla Installs Charging Stations Across the U.S 

Tesla completes a network of Supercharger Stations stretching from New York City to Los Angeles, allowing drivers of its electric cars to travel from coast to coast, charging along the way. 

 

2016: China sees 700+ Million Daily Internet Users

China becomes the first nation to top 700 million daily internet users, most of whom access it via mobile devices. Mandarin is expected to overtake English as the internet’s primary language by the end of the decade. 

Source: TechCrunch, 2017

2017: D.C. Named First LEED Certified City

Washington, D.C is named the first LEED for Cities Platinum City. One of the world’s most respected green building certification programs, it’s bestowed upon buildings and cities demonstrating a commitment to sustainability, green energy use and public transit accessibility. 65% of Washington, D.C is walkable, 58% of commuter trips are taken by bike or public transit, and the city government is powered entirely by renewable energy. 

Source: U.S. Green Building Council 2017

2017: South Miami Requires Solar Panels 

South Miami, Florida approves a measure to become the first city in the world to require solar panels on new homes. Florida has ideal conditions for adopting a solar technology and is increasingly vulnerable to the impacts of climate change. 

 

2017: Mass-Production of Self-Driving Cars

General Motors and Cruise Automation announce their intention to launch the first mass production of a self-driving car. Based on the Chevy Bolt, the cars will begin being assembled by the end of the year. 

 

2020: Tokyo Introduces Self-Driving Taxis 

Coinciding with the Olympics, Tokyo introduces a fleet of self-driving taxis to the city’s roads, echoing the introduction of the Shinkansen for the 1964 Games. 

 

 

2020: Volvo Goes Electric Only 

Sino-Swedish automaker Volvo introduces a fully electric lineup of cars and SUVs. 

 

2020: 5G Becomes the Standard Bearer

The 5G telecommunications standard is introduced in the United States. With potential speeds and capacity up to 100 times greater than 4G, 5G will be the backbone of widespread Internet of Things (IoT) and self-driving car technology. 

Source: ArsTechnica, 2016

2021: International Thermonuclear Experimental Reactor 

The International Thermonuclear Experimental Reactor (ITER) is completed in Cadarache, France. A global project funded by the European Union, China, Russia, Korea, India, Japan, Australia and the United States, the facility will produce the first self-sustaining plasma charge by 2025, a major breakthrough towards achieving the century-long dream of “cold fusion.” 

Source: ITER, 2017

2025: Norway and Netherlands Ban Internal Combustion 

Both Norway and the Netherlands prohibit the sale of vehicles powered by an internal combustion engine. Germany, India and China plan to follow suit by the end of the 2020s. 

 

2025: San Jose to Bakersfield at 200 MPH

Connecting San Jose and Bakersfield, the first segment of California’s High-Speed Rail network is completed. Traveling at over 200 MPH, the system will eventually connect the state’s largest cities from San Francisco to San Diego by 2035. 

Source: California High Speed Rail 2016 Business Plan

 

An Inside Look at Smart Cities

Countless people and technologies help keep our cities safe, clean, and efficient; some we interact with in plain sight, and others operate beneath the surface, improving our lives in ways we don’t fully realize. Here are a few examples of how our cities are getting smarter—and will need to continue to do so as the trend toward urbanization grows.

Solar Panels + Wind Turbines

Making urban energy systems smart isn’t just about using cleaner fuels, it’s also about producing energy closer to the places it’s consumed. Connected solar panels and wind turbines can generate energy in cities and contribute in peak conditions.

Smart Transportation System

Smart transportation systems can find bottlenecks in traffic patterns and help communicate alternate routes to drivers. Gathering and sharing real-time information makes getting around smart cities safer, more efficient, and less frustrating.

Connected Cars

Smart parking meters can inform drivers of parking availability. Soon, self-driving cars will shuttle people in and out of the city while they’re occupied with work or other activities.

Urban Farms

Urban farms are already producing up to 15% of the world’s food1. From fresh fish to produce and herbs, smart cities are building vertical farms in multi-story buildings and using soil alternatives to bring urban populations sustainable and locally-grown produce.

Smart Offices

Building automation systems can monitor and control operations to improve lighting, AC, air quality, as well as employee security. Investing in these upgrades pays off for employers— studies show that comfortable, well-ventilated, and well-lit workplaces can increase productivity by as much as 15%2.

Water Monitoring

Utilities can remotely and continuously monitor and diagnose problems such as leaks and stoppages, take preemptive measures to manage maintenance, and optimize water distribution. Sensors also help to keep drinking water clean and verify that wastewater is being properly processed.

Drones

Drones are already being used in cities to document accidents and support first responders. Their ability to cover hard to reach areas also makes them particularly useful for monitoring critical infrastructure like antennae and bridges.

Smart Lighting

Smart tech goes beyond connecting and automating everyday objects; it’s also about empowering them beyond their original purposes. Connected street lights not only provide energy-efficient lighting but can also provide environmental data collection and alerts, serve as wifi hotspots, and send gunfire detection alerts.

Small Cells

Connecting a smart city requires a strong wireless network. Small cells as compact as shoe boxes can provide faster data and support the host of smartphone users joining the network.
 

Waste Management

Cities create tons of waste, and smart technology can improve how it’s collected and separated. Smart garbage bins use compactors to accommodate more waste than the average bin, and can alert collection staff when full. Garbage trucks use GPS to make collection routes more efficient.

Big Data Analysis

Cities have access to more data than ever, but real-time reporting requires quick and intelligent analysis. New data centers help cities optimize approaches to lighting, energy, traffic controls, and public safety.

DATA SOURCES

  1. University of Florida 2017
  2. Forbes, 2017

The Future Includes Data Centers That Power Radiators and Buildings That “Eat” Smog

For ages, people have wrangled urban existences from unlikely foundations, constructing architectural masterpieces in some of the most inhospitable places on the planet. Today, the issues facing urban sprawl are more complex than simply harnessing Mother Nature. Experts predict that 70% of the world’s population will reside in urban areas by 20501. Cities will feel the strain, magnified by stressors, such as infrastructure, that are ill-equipped to handle a growing population and worsening pollution. The good news is that today’s cities are combatting challenges with unexpected solutions that seem years ahead of the curve. Below are a few of the most innovative concepts happening around the globe.

A CHINESE FOREST CITY THAT WILL “EAT” SMOG

Pollution is a pressing challenge for major Chinese hubs like Beijing and Shanghai. Recognizing the issue, China is leading the charge when it comes to state-of-the-art, sustainable solutions for improving air quality. One example is the Forest City, which aims to host a unique combination of inhabitants—up to 30,000 people and about a million plants2.

In China’s Forest City, plants will outnumber humans by a margin of 3,000 to 1. Image by Stefano Boeri Architetti.

It’s predicted that Forest City will absorb 10,000 tons of carbon dioxide, 57 tons of pollutants, and produce 900 tons of oxygen each year3. The experiment is expected to result in better air quality, natural noise barriers, and impressive levels of biodiversity that will literally “eat” smog.

Forest City’s self-sufficient community will be powered by geothermal and solar energy sources, and will feature a rail line for electric vehicles. Construction of the city, which will consist of more than 340 acres and house shopping malls, hospitals, homes, hotels, schools, and offices—all covered top to bottom in plant life—will begin soon.

Stefano Boeri, the architect spearheading the project, hopes that the community will serve as a model for future green endeavors, not just because of its features, but also because of its holistic approach to urban planning. The project is built around three pillars: technology, biodiversity, and community engagement—all of which will be central to successful green projects in the future, Boeri explained.

“Collectively, we have been able to increase the number of technical devices that produce renewable energy. But we now understand that this is not enough,” he said. “If we only focus on the technology to fight climate change we will only solve part of the problem. It has to be combined with a diverse urban forestry and, more importantly, a commitment from the local community if we want to create something enduring.”

DATA CENTERS THAT HEAT STOCKHOLM

Data centers, despite their reputation for efficiency, are in reality energy-intensive. Globally, data centers represent as much as 3% of total electricity consumed,4   much of which is needed to run fans to cool servers as they generate a tremendous amount of heat.

Stockholm’s data center program is a unique alignment of corporate incentives and sustainability.

That heat has to go somewhere, and Sweden wants to send it to individual homes. Working with a local heating company and power grid operator, the city of Stockholm announced the Stockholm Data Parks project in 2017, an initiative that helps data centers recycle their excess energy to heat the homes of city residents. The project, which expects to generate enough heat to warm 2,500 homes by the end of 2018, is part of Stockholm’s goal to be completely fossil-fuel free by 2040.5

Sweden is heavily focused on sustainable efforts like this one because it lacks natural energy reserves, and gets just 6.3% percent of its electricity from fossil fuels.6   Also, the Stockholm Data Parks project has attracted investor interest because companies that join the program can sell their own heat, and receive free cooling services. The project offers a great illustration of how a city can align corporate incentives with a unique sustainability initiative.

THE BUILDING THAT’S A GAME CHANGER FOR ROTTERDAM

Renderings of the Dutch Windwheel—currently being touted as “the sustainable icon and future landmark in Europe’s largest port city”— feel like something straight out of science fiction.

The Dutch Windwheel will double as both a major architectural achievement, and a triumph of sustainability. Image by Doepel Strijkers.

In reality, the Windwheel will be part utility and part attraction. It will include apartments, offices, and a hotel, as well as shops and a futuristic ferris-wheel-type ride. The building will stand more than 570 feet tall and will feature a double loop of glass and steel, lending a sleek look to the structure.

Architect Duzan Doepel said that, with the Dutch Windwheel, he aims to create a structure in Rotterdam that rivals the touristic appeal of the London Eye, which draws millions of people each year. “I see this as the kind of project where tourism and real estate can combine in a way that illustrates how innovation can solve some of the social and environmental challenges that we face,” he said.

The Windwheel is more than just visually stunning; it will also be an icon for sustainability and cutting-edge technology. Each of the 40 cabins will be equipped with “smart walls” —glass panels infused with touch-screens that display data about the scenery viewable from the ride—as well as holographic tour guides and 3D interactive experiences that will enlighten visitors about Dutch sustainability programs. The building is intended to be carbon neutral and is scheduled to begin construction in 2025.

“If we’re going to embrace the next economy, which is built on the pillars of sustainable energy and innovation, then we need to develop an architecture that responds to our new environmental and resource challenges,” Doepel said. “Technology is a wonderful tool that we must leverage intelligently as we design our structures for tomorrow’s world.”

As our world progresses into new eras of history complete with their own set of challenges, cities will need to continue to be blueprints for adaptiveness—and smart cities in particular will need to be trailblazers for ideas that push the boundaries of what we thought was possible.

DATA SOURCES

  1. UN World Urbanization Prospects, 2014 Revision
  2. Stefano Boeri Architetti, Studio Urban Planning and Architecture
  3. Stefano Boeri Architetti, Studio Urban Planning and Architecture
  4. The Independent, 2016
  5. BBC, 2017
  6. CIA, World Factbook, Sweden

Rapid Urbanization Creates “Smart” Opportunities

For the first time in history, there are more people living in urban than rural areas and that trend is expected to continue – with 1.4 million people added to the urban population every week1. Today, nearly 54.5% of the world’s population lives in cities2, and it’s expected to grow to 70% by 20503.   People are drawn to cities for a number of reasons – job opportunities, stronger education resources, exposure to arts and culture and a more diverse environment, to name a few.

But for all the richness of cities, urban living can be filled with challenges, from traffic jams to taxed energy systems to overcrowded sidewalks and transit. Many of these difficulties are rooted in dated infrastructure – so as the number of people living in cities continues to rise, investing in and modernizing city infrastructure becomes critical.

The ultimate goal? Creating a “smart city” – one that leverages technology to improve quality of life for its residents, and creates better systems and structures to support it. One that looks ahead to future generations and starts the work now to meet those needs.  Investing in the “smartness” of a city not only modernizes it, but creates a stronger, more sustainable place to live and work.

The good news is that the challenge of creating a smart city presents great opportunities. In fact, the smart city market could grow from an estimated US$1 trillion in 20174 to US$3.5 trillion by the mid-2020s5. This means opportunities for companies, investors and, of course, the residents themselves. How do you uncover those opportunities? Step one is imagining what it might be like to live in a “smart city”.

THE INTERSECTION OF TRANSPORTATION & TECHNOLOGY

Logic dictates that as urban populations continue to swell, the strain already felt by public transit systems, roads, bridges, etc. will increase exponentially. But technology can and is having an impact: autonomous and electric vehicles, the smart power grid, and real-time travel behavior analysis are improving mobility. 

For example, Columbus, Ohio is experimenting with the concept of a rapid transit service consisting of semi-automated and autonomous vehicles, bikesharing and ridesharing services, and connected kiosks that provide scheduling information. The system will employ sensors, special lanes, and smart traffic signals to increase efficiency on the city’s bus system as well. The hope—based upon the premise that a lack of adequate public transportation is at the heart of many cities’ socioeconomic inequality issues—is that these updates will ultimately connect people in underserved communities to job opportunities and healthcare facilities. Ultimately, these innovations can have an even broader benefit, reducing carbon emissions, and solving ubiquitous challenges around the daily commute.

A NETWORK OF CONNECTIVITY

Leveraging technology alone doesn’t automatically make a city “smart”. One of the key practices that today’s smart connected cities follow is “collect, communicate, and crunch6.” This approach involves 1. The collection of data—things like pedestrian flow, weather conditions, and traffic patterns—via smartphones or other devices, 2. Communication among a network of such devices, and 3. Data analysis that produces actionable insights and even predicts what could happen next.

These street lights do much more than just give off light

This type of connectivity, supplemented by the Internet of Things (IoT), is no longer arriving—it’s already here. Today’s cities are transitioning to modern platforms in which every system from emergency response to water storage operates in harmony.

Cities around the world are already integrating their infrastructures through connectivity. Rio de Janeiro, Brazil has a massive “smart operations” center, which collects and analyzes information from more than 30 local agencies. The city can predict conditions like where floods will occur if there are dangerous storms.  In Santander, Spain, more than 10,000 sensors have been installed  into city street lamps, poles, parking lots, and building walls to collect data about weather and pedestrian behavior—and an app gives citizens access to this data for transit and event schedules. And in Singapore, the Smart Cities Programme Office employs sensors, cameras, and GPS devices to implement “congestion pricing,” which assigns tolls based on real-time traffic patterns.

CROWDED DOESN’T HAVE TO MEAN IMPERSONAL

Even unseen, sensors are tracking residents and helping cities make commutes better.

Smart cities don’t adhere to a cookie-cutter template – creating an environment that’s comfortable and adaptable to the needs of its many residents is essential. In the smart cities of the future, things such as train platforms, sidewalks, and office buildings will offer a spectrum of data-powered personal comfort preferences. From individualized temperature and lighting controls to customized shopping experiences, virtually no experience of city life is likely to be 100% identical in the future.

 Accessibility can and should include assistance we’ve never imagined – and will open up the urban ecosystem to people of all ages and abilities. Voice assistants, “smart” signage, and responsive street technology will be capable of adapting to individuals’ mobility needs. One concept for “responsive street furniture” (from British designer Ross Atkin in partnership with Marshalls) is already being developed: Users register with a smartphone app and specify their needs (brighter street lights, audio information, a few more seconds to make it across the street) – while they’re walking.

This will be critical, as already today, 25% of the residents in the 100 largest US cities are over the age of 65 or living with disabilities7.

 

WHERE DOES IT ALL LEAD?

The road to arrive at the cities of our tomorrow isn’t short – but we’ve traveled it before.  In fact, it wasn’t that long ago that we installed the first streetlight or turned on the first computer or unveiled the first transit system. What can seem daunting is actually a compelling opportunity for community leaders, companies and investors alike.

Traditional organizations – telecom, construction, transportation, and local governments as examples – will play critical roles, as will relatively nascent industries such as renewable energy, artificial intelligence, cleantech, and cybersecurity.  All will be needed to shape the cities of tomorrow.

And making the investment is worthwhile. Cities are the #1 contributor to GDP – the world’s 600 largest cities are expected to comprise nearly 65% of global GDP growth in the next 10 years8. And a smart city does that in the most efficient and innovative way possible. But the chance to build truly inclusive communities – where technology opens up the ecosystem to all residents may in fact be the most remarkable opportunity of all.

DATA SOURCES

  1. UN 2014
  2. UN DESA 2015
  3. UN World Urbanization Prospects, The 2014 Revision
  4. Smart Cities Council 2016
  5. Persistence Market Research 2017
  6. Smart Cities Council Readiness Guide
  7. U.S. Census Bureau, 2014 American Community Survey: 1-Year Estimates of Metropolitan areas in the U.S.
  8. McKinsey 2016

Reimagining Cities from Sewer to Skyscraper, and the Public-Private Investments Needed to Get There

What does it mean to be a “smart city”? It requires more than simply offering public WiFi or the latest digital cellular networks. It relies on technology to integrate a city’s infrastructure at every level. And, until recently, the word “infrastructure” meant physical assets like roads, streetlights, and sewers, but  smart  infrastructure expands that to include often-invisible data networks which connect, enhance, and control these physical fixtures – becoming the backbone for any truly smart city.

Ambitions for this modern connected infrastructure look to affect everything from energy to housing to transportation to education to health care. Ultimately, the goal is for all of these areas to be interconnected and ladder up to a centralized “brain” that helps them work together. Not an easy transition for most cities – getting there requires a new level of partnership and contribution by governments, companies and investors alike. Often, the private sector leads the way, with expertise or access to new technologies that governments tap into for a range of solutions. Initiatives in three cities—London, Singapore, and Dallas—illustrate some of the different approaches these partnerships are taking.

LONDON: INNOVATING AROUND CHALLENGES

Lighting is a defining characteristic of any cityscape – but it’s so much more than that. Cities bustle with activity day and night, making ubiquitous lighting a necessity. All this illumination requires energy and manpower, and technology can help make it more efficient. That’s why London tapped Philips Lighting’s CityTouch system to power, connect, and automate 42,000 lights throughout the city. Philips estimates that energy consumption is reduced by more than 70%1 while lowering CO2 emissions. Additionally, when a light bulb goes out, CityTouch sends a notification so that a crew can be dispatched for a repair right away. Not only does this make upkeep more efficient, but potentially enhances security by keeping dark corners and roads to a minimum.

Another area of focus is public transportation. Beginning in the 1990s, London installed sensors in traffic lights that recognize oncoming buses and give them priority to pass through. These Selective Vehicle Detection (SVD) sensors have reduced travel times, increased bus ridership by 38% 2, and paid for themselves with operational savings. More recently, Transport for London partnered with the private consulting firm Transport Research Laboratory to develop driverless shuttles that are safer and more efficient than their non-autonomous counterparts. In addition, the partnership is developing technologies to make the system safer—with its trial run of curbside audio and light signals to alert pedestrians of an approaching bus.

The city has also gotten smart about its handling of another common challenge: lack of parking. Up to a third of traffic in downtown areas is made up of drivers looking for spots3 – contributing to congestion, frustration, and a steady unnecessary stream of CO2. By partnering with FM Conway Ltd and parking technology specialist Smart Parking Limited, the busy Westminster area of London has used Infrared SmartEye sensors in more than 3,000 parking spaces to determine availability. This data is then transmitted to the ParkRight mobile app, which maps real-time open spaces for drivers.

Historically London has been at the forefront of leveraging innovation to solve city challenges, but they reinforced their approach in 2013 by creating the Smart London Board. The board has included experts from companies like Siemens, Intel, Huawei, McKinsey, and IBM and its main focus is helping London’s leadership find technology-based solutions to major urban dilemmas.

SINGAPORE: MEETING THE NEEDS OF HIGHLY CONNECTED CITIZENS

Smart cities are data-heavy endeavors. When data is offered as a public utility, it presents a powerful new tool for entrepreneurs and startups to harness into opportunity. On this front, Singapore’s government has jumped in headfirst with one of the world’s largest smart city rollouts, Smart Nation. The program was launched in 2014 with the goal of leveraging technology, networks and big data to open the doors to economic opportunity, build stronger communities and an overall better quality of life. It’s a roughly $2 billion public investment aimed at creating opportunities for private infrastructure initiatives.

The program requires a massive amount of data aggregation and transfer, which is processed by public and private network controllers. This multi-faceted network will be used by both government agencies and businesses to offer services, such as predictive healthcare services, simplified cashless transactions, and real-time autonomous mobility services to Singapore’s highly connected population.

In addition, the city’s Beeline SG system leveraged these network-based technologies to deliver a connected mobility platform which went live in August 2015. The cloud-based system allows riders to book seats on available buses ahead of time via an app, guaranteeing a seat on the bus. Travelers can also suggest new routes and, based on demand, routes are added and changed. This is partially attainable because the Beeline platform is an open sourcing model– it allows for private transport companies to supplement the public services in order to keep up with commuter demand. Currently there are seven private bus operators on Beeline and 34 routes, with plans to add more4.

DALLAS: LEVERAGING TECHNOLOGY TO ACCELERATE EFFICIENCY

Dallas is an active city – it houses 20 Fortune 500 company headquarters5 and has the 7th largest concentration of technology jobs in the U.S6. In 2015, the Dallas Innovation Alliance (DIA) was founded as a public-private coalition that includes local government, corporations, civic organizations, NGOs, and academia joining forces to transform Dallas into “a forward-thinking, innovative smart global city.”7   DIA is a non-profit entity, with a strategy of a testing out key ideas and initiatives in pilots instead of pushing things out quickly to the whole city.

Phase One of DIA’s initiative includes the creation of a connected “living lab” inside the city’s West End neighborhood, the fasting growing residential area in Dallas County. The lab is powered by AT&T and supported by partners including Dallas Area Rapid Transit, Dallas Regional Chamber, Cisco, IBM, and Philips. An early initiative includes the installation of Smart LED light bulbs from GE and Philips managed by “intelligent nodes,” which enable intelligent lighting management. These connected light bulbs could eventually be used to capture real-time data such as air quality, traffic congestion, crowd gatherings, and other events.

Other initiatives being rolled out by the lab include a smart parking system, advanced water metering that wirelessly monitors and optimizes usage, and a smart irrigation system to service a downtown park. All the collected data will be funneled through an open source platform that can be tapped by citizens, entrepreneurs, and other organizations to create their own applications.

And a major added benefit of the living lab is that it allows Dallas to test smart city ideas with no cost to taxpayers. The solutions being tested in the West End are almost entirely funded by in-kind donations from partners of the alliance.

AS CITIES GO, SO GOES THE WORLD

The dense and dynamic cities of the future will face unprecedented challenges.  They will be tasked to efficiently and sustainably deliver transportation, security, and opportunity to millions of residents. But these challenges bring with them unprecedented opportunities. Opportunities for governments, companies, investors and citizens to work together – bringing the best thinking to the forefront. From those ideas will come enhanced quality of life, more efficient governance, strong long-term investments, economic growth, and, of course, truly Smart Cities.

DATA SOURCES

  1. Philips, Lighting the Future (2014)
  2. Transport for London, Bus priority at traffic signals keeps London’s buses moving (2006)
  3. Shoup, Cruising for Parking, 2015
  4. Government Technology Agency of Singapore, 2017
  5. Dallas Regional Chamber, Dallas Economic Development Guide
  6. Dallas Regional Chamber, Dallas Economic Development Guide
  7. Dallas Innovation Alliance, 2017

Traditional Industries Join Forces with New Tech

Increasing population levels and more frequent climate events are presenting new challenges to city living, and cities need to evolve in order to tackle these challenges. Below are some examples of how traditional industries, such as utilities, telecom and agriculture, are joining forces with innovations like artificial intelligence (AI), renewable energy and the Internet of Things (IoT) to help drive a new era of industry. Inter-industry collaboration will not only ensure that city infrastructure can deliver on a minimum of public services—security, water, electricity, transit—but it can also help overcome risks that lead to fragility.

BIG DATA MEETS AGRICULTURE

The concept of smart agriculture marks an important collaboration between a centuries-old industry and ultra-futuristic technology. Ultimately, big data could inform the way we farm, eat, and sustain growing communities.

A clear example of this is smart water systems, which lead to smarter irrigation and in turn improve crop yields. Smart water networks enable proactive monitoring—they can measure metrics like leakage, pressure, quality, etc.; diagnose issues in real-time; and adjust settings accordingly to reduce waste.

The future of farming is smarter – and more vertical

Paired with urban ag developments like vertical farming, these integrated systems can help sustain rising city populations. In addition, drone surveillance and data-driven tech can drive other efficiencies in modern agriculture. Companies like GrowUp Urban Farms in London, Sky Greens in Singapore, and AeroFarms in the United States are proving that tech- and data-infused vertical farming is redefining the agriculture industry. AeroFarms, for instance, is leveraging data and technology to grow food without sun or soil. The company boasts 390 times more productivity per square foot and uses 95% less water than does a commercial field farm.1

There’s huge potential for growth within the smart ag industry. The market is expected to grow from $9.02 billion in 2016 to $18.45 billion in 20222, and the smart water market could grow from $8.5 billion in 2016 to $20.1 billion by 20213.

AI IMPROVES WASTE MANAGEMENT

Smart waste systems have a big secondary benefit: fewer garbage trucks (and less pollution)

Smart waste management is one of the most promising ways to address the planet’s mounting pollution problem—which is also a major cause of urban fragility. Thanks to the introduction of technologies such as RFID (radio frequency ID) tags on waste bins, automated garbage collection, and solar-powered trash compactors, tech-based waste management systems are making progress in a big way.

Big Belly is one of the global leaders in the smart waste management space with more than 50 countries leveraging their platforms. Communities are able to use Big Belly’s solar-powered, sensor-equipped waste and recycling stations, which communicate real-time status to collection crews. These solutions not only lead to less clutter and waste in urban areas (Big Belly estimates a 70-80% reduction in waste and recycling collections), they also reduce the carbon footprint associated with fleets of waste-removal vehicles. In addition, they offer increased infrastructure for hosting technologies like WiFi. Soon, AI is likely to play an even greater role in urban waste management and recycling. This could result in more diversion of plastics, steel, aluminum, compostable food waste, and paper products—the bulk of municipal solid waste—from landfills 4. And while not as big as the agriculture and water markets, the smart waste management market is predicted to more than double from $1.1 billion in 2016 to $2.4 billion by 2021.5

5G TRANSFORMS HEALTHCARE

5G connectivity will result in more than simply speedier web-browsing—it will fundamentally change the way the world exchanges data. The healthcare industry in particular stands to benefit from widespread 5G connectivity, especially as data-heavy technologies like the Internet of Medical Things (IoMT) become integrated into city (and hospital) infrastructure.

Uniform and high-bandwidth connectivity means it will become easier for nurses, doctors, specialists, and medical facilities to connect with patients and with one another no matter where they are. In the long term, 5G networks will likely mean that a variety of routine healthcare scenarios— wellness visits to diagnostic testing to mental health examinations—can be conducted remotely.

Faster internet access can mean faster diagnoses, examinations and testing

A number of companies are developing healthcare technology solutions that will rely heavily upon 5G. At the 2017 Mobile World Congress, companies including Deutsche Telecom, SK Telecom, and Ericsson showcased how 5G networks may eventually enable robotic telepresence surgery.6  In a demonstration, a robotic “doctor” mimicked intricate surgical motions of a human counterpart—but the technology only functioned optimally while running on a 5G connection.7

Experts predict that healthcare transformation leveraging 5G will facilitate an estimated $76 billion revenue opportunity by 2026 for telecom companies.8  5G is good news for patients, too: One study found that nearly three-quarters of healthcare executives (73%) expect 5G networks will enable services and products that will improve the quality of life for the public at large.9

THE SYNERGIES OF CLASSIC AND NEW

The old adage of 1+1=3 holds true. As established industries team up with new technologies, the results are meaningful for cities around the world. Tech advancement driving industry integration isn’t a new concept; cities have long incorporated new innovations into traditional infrastructure—electric power and computer technology being major examples.

The newer synergies are not only creating solutions that help modernize infrastructure, they are resulting in ancillary ways to help citizens live more efficient and connected lives—thus blazing the trail for a brighter future.

DATA SOURCES

  1. Our Technology, AeroFarms
  2. Markets and Markets, 2016
  3. Markets and Markets, 2016
  4. Environmental Protection Agency
  5. Markets and Markets, 2016
  6. IDG Network World, 2017
  7. IDG Network World, 2017
  8. Ericsson, 5G Healthcare
  9. Ericsson, 5G and IoT: Ushering in a new era